mhurhangee/patent-ind-claim-en huggingface dataset:
A sea bed survey system configured to be towed by a towing body and being configured to detect unexploded ordinances, UXO's, or other objects with ferromagnetic signatures residing on the bottom or buried in the bottom sediment, the sea bed survey system comprising at least two sensor carriers extending on opposite sides of a longitudinal axis (L) coinciding with a survey direction, each sensor carrier having a plurality of sensors disposed along its length, wherein at least one sensor is a magnetic sensor configured to detect the unexploded ordinances, UXO's, or other object with ferromagnetic signatures, and at least one deflector configured to control the lateral extension of the sensor carrier relative to the longitudinal axis and the vertical position of said sensor carrier relative to a height or altitude above the sea bed , such that the vertical height or altitude above the sea bed of said sensor carrier is less than the lateral extension of said sensor carrier, characterized in that the deflector is configured to control the lateral extension of the sensor carrier such that it exceeds 25% of the length of sensor carrier and further characterized in that the two sensor carriers form a V-shape with respect to the longitudinal axis.
A method for detecting a cancer(s), which is applied to a sample separated from a living body and comprises measuring an expression of a polypeptide having a reactivity to bind to an antibody against a centrosomal protein having the amino acid sequence SEQ ID NO:26, 28 or 42 by antigen-antibody reaction.
A refrigeration system containing: at least one motor driven refrigerant compressor , at least one motor driven fan , at least one temperature sensor , and a refrigeration system controller , at least one of the compressor or fan motors being electronically commutated motors, and the refrigeration system controller containing at least one microprocessor commutating at least one of the electronically commutated motors driven from the system controller and the operation of any other motors in the refrigeration system and the operation of other ancillaries of the refrigeration system, the microprocessor additionally commutating at least said electronically commutated motor in relation to at least the temperature sensor output, characterised in the commutation of at least one motor being a primary microprocessor task and monitoring the sensors and reacting to their inputs being a secondary microprocessor task, wherein said secondary microprocessor task is interrupted by higher-priority interrupts related to the time-critical aspects of the commutation of the motors. at least one motor driven refrigerant compressor , at least one motor driven fan , at least one temperature sensor , and a refrigeration system controller , at least one of the compressor or fan motors being electronically commutated motors, and the refrigeration system controller containing at least one microprocessor commutating at least one of the electronically commutated motors driven from the system controller and the operation of any other motors in the refrigeration system and the operation of other ancillaries of the refrigeration system, the microprocessor additionally commutating at least said electronically commutated motor in relation to at least the temperature sensor output, characterised in the commutation of at least one motor being a primary microprocessor task and monitoring the sensors and reacting to their inputs being a secondary microprocessor task, wherein said secondary microprocessor task is interrupted by higher-priority interrupts related to the time-critical aspects of the commutation of the motors.
A method for providing synchronization between a plurality of wireless body sensors, the method comprising: - establishing a time schedule designating different individual sensors of said plurality of wireless body sensors as a master node for respective consecutive periods of time; - operating said plurality of wireless body sensors whereby said different individual sensors broadcast a periodically repeated synchronization signal during said respective consecutive periods of time; - analyzing an energy consumption and performance pattern of said plurality of wireless body sensors under said time schedule; and - updating said time schedule on the basis of said energy consumption and performance pattern. - establishing a time schedule designating different individual sensors of said plurality of wireless body sensors as a master node for respective consecutive periods of time; - operating said plurality of wireless body sensors whereby said different individual sensors broadcast a periodically repeated synchronization signal during said respective consecutive periods of time; - analyzing an energy consumption and performance pattern of said plurality of wireless body sensors under said time schedule; and - updating said time schedule on the basis of said energy consumption and performance pattern.
An implantable medical device system for providing adjustable rate pacing therapy to a heart of a patient, the system comprising: a leadless cardiac pacemaker (LCP) implantable within or proximate the heart of the patient, wherein the LCP is configured to: sense cardiac electrical data; provide pacing therapy to the heart of the patient based at least in part on the sensed cardiac electrical data; an implantable medical device implanted in a location that is spaced from the heart of the patient, wherein the implantable medical device comprises an accelerometer, characterised in that said implantable medical device is configured to: sense patient activity, generate patient activity data based at least in part on an output of the accelerometer; and wirelessly communicate a patient activity data signal to the LCP; and wherein the LCP is configured to determine an adjustment to the provided pacing therapy based at least in part on the received patient activity data signal and adjusts the pacing therapy; and wherein the accelerometer is a three-axis accelerometer, wherein the implantable medical device is a subcutaneous implantable cardioverter-defibrillator (S-ICD). a leadless cardiac pacemaker (LCP) implantable within or proximate the heart of the patient, wherein the LCP is configured to: sense cardiac electrical data; provide pacing therapy to the heart of the patient based at least in part on the sensed cardiac electrical data; sense cardiac electrical data; provide pacing therapy to the heart of the patient based at least in part on the sensed cardiac electrical data; an implantable medical device implanted in a location that is spaced from the heart of the patient, wherein the implantable medical device comprises an accelerometer, characterised in that said implantable medical device is configured to: sense patient activity, generate patient activity data based at least in part on an output of the accelerometer; and wirelessly communicate a patient activity data signal to the LCP; and sense patient activity, generate patient activity data based at least in part on an output of the accelerometer; and wirelessly communicate a patient activity data signal to the LCP; and wherein the LCP is configured to determine an adjustment to the provided pacing therapy based at least in part on the received patient activity data signal and adjusts the pacing therapy; and wherein the accelerometer is a three-axis accelerometer, wherein the implantable medical device is a subcutaneous implantable cardioverter-defibrillator (S-ICD).
A computing device implemented method for turbine failure analysis, comprising: collecting a first set of data associated with wind turbine performance and a second set of data associated with wind turbine performance by a set of wind turbine sensors via a computing device ; segmenting the first and second sets of data into a number of wind turbine operational regions, wherein each region is defined by particular wind speeds; analyzing the first set of segmented data to determine: a baseline condition with respect to one or more performance characteristics; and whether the first set of segmented data indicates a fault condition based upon a data value that satisfies a threshold value; analyzing the second set of segmented data associated with wind turbine performance to determine if a fault condition exists based on a comparison of the second set of segmented data and the threshold value; and providing a notification to take an action in response to the determination that the fault condition exists. collecting a first set of data associated with wind turbine performance and a second set of data associated with wind turbine performance by a set of wind turbine sensors via a computing device ; segmenting the first and second sets of data into a number of wind turbine operational regions, wherein each region is defined by particular wind speeds; analyzing the first set of segmented data to determine: a baseline condition with respect to one or more performance characteristics; and whether the first set of segmented data indicates a fault condition based upon a data value that satisfies a threshold value; a baseline condition with respect to one or more performance characteristics; and whether the first set of segmented data indicates a fault condition based upon a data value that satisfies a threshold value; analyzing the second set of segmented data associated with wind turbine performance to determine if a fault condition exists based on a comparison of the second set of segmented data and the threshold value; and providing a notification to take an action in response to the determination that the fault condition exists.
A network slice configuration method, wherein the method comprises: determining or obtaining , by a network slice manager, network resource information corresponding to a subnet; and sending , by the network slice manager, a subnet management request to a subnet manager, wherein the subnet management request carries the network resource information corresponding to the subnet, and the network resource information corresponding to the subnet is used by the subnet manager to configure the subnet, characterized in that the network resource information corresponding to the subnet comprises connection information of a network component included in the subnet. determining or obtaining , by a network slice manager, network resource information corresponding to a subnet; and sending , by the network slice manager, a subnet management request to a subnet manager, wherein the subnet management request carries the network resource information corresponding to the subnet, and the network resource information corresponding to the subnet is used by the subnet manager to configure the subnet, characterized in that the network resource information corresponding to the subnet comprises connection information of a network component included in the subnet.
An assembly for use in arthroplasty, wherein the assembly comprises: an acetabular shell comprising a shell locking section , and a liner within the shell , the liner including: a generally concave inner surface , an outer surface , a rim extending between the inner surface and the outer surface , wherein the outer surface includes a liner locking section , wherein the shell locking section and the liner locking section are self-locking tapers characterised in that : the outer surface of the liner further includes a composite-curved section , the composite-curved section including a curved radial portion having a radius and a curved tangential portion having a radius, wherein the curved radial portion of the composite-curved section extends tangentially from the liner locking section at a first transition point , and in which the composite-curved section includes a curved tangential portion which extends from the curved radial portion at a second transition point where it is tangential to the radial portion; and in which the curved tangential portion has a curved configuration with a radius, the radius of the curved tangential portion being different from the radius of the curved radial portion (250. an acetabular shell comprising a shell locking section , and a liner within the shell , the liner including: a generally concave inner surface , an outer surface , a rim extending between the inner surface and the outer surface , a generally concave inner surface , an outer surface , a rim extending between the inner surface and the outer surface , wherein the outer surface includes a liner locking section , wherein the shell locking section and the liner locking section are self-locking tapers the outer surface of the liner further includes a composite-curved section , the composite-curved section including a curved radial portion having a radius and a curved tangential portion having a radius, wherein the curved radial portion of the composite-curved section extends tangentially from the liner locking section at a first transition point , and in which the composite-curved section includes a curved tangential portion which extends from the curved radial portion at a second transition point where it is tangential to the radial portion; and in which the curved tangential portion has a curved configuration with a radius, the radius of the curved tangential portion being different from the radius of the curved radial portion (250.
Straddle-type vehicle comprising: an engine , a fuel tank , and a canister being connected with the fuel tank and the engine , said engine is arranged under a seat of the vehicle, wherein said canister is facing the engine , and an outer surface of said canister is covered in a forward and/or upward direction of the straddle-type vehicle, the canister and the engine are overlapping in side view of the straddle-type vehicle, wherein said outer surface of the canister is covered in a forward direction of the vehicle by means of the fuel tank .
An ocular protection device comprising: a corneal shield configured to fit underneath eyelids; a handle rigidly connected to an outer, proximal surface of the corneal shield, the handle configured to protrude between closed eyelids; wherein the handle is configured to allow an operator to control the corneal shield via the handle while having an unobstructed view and access to the eyelids; and wherein the ocular protection device comprises a hinge , and wherein the distance between the shield and the hinge allows the handle to be articulated so that the operator may fully access the lid margin in the vicinity of a stem of the handle while allowing room for a treatment handpiece and the operator's hand without obstructing the view of the area under treatment, such that wherein the handle has a length of at least 25mm and the hinge is at a distance from the corneal shield along the handle by at least 15mm; wherein the handle includes an appendage near its proximal end for manipulating with a hand; and wherein the hinge is located between the corneal shield an the appendage . a corneal shield configured to fit underneath eyelids; a handle rigidly connected to an outer, proximal surface of the corneal shield, the handle configured to protrude between closed eyelids; wherein the handle is configured to allow an operator to control the corneal shield via the handle while having an unobstructed view and access to the eyelids; and wherein the ocular protection device comprises a hinge , and wherein the distance between the shield and the hinge allows the handle to be articulated so that the operator may fully access the lid margin in the vicinity of a stem of the handle while allowing room for a treatment handpiece and the operator's hand without obstructing the view of the area under treatment, such that wherein the handle has a length of at least 25mm and the hinge is at a distance from the corneal shield along the handle by at least 15mm; wherein the handle includes an appendage near its proximal end for manipulating with a hand; and wherein the hinge is located between the corneal shield an the appendage .
A carrier selecting method, comprising: selecting , by an access point, unlicensed carriers satisfying a first condition from unlicensed carriers as a first carrier set; sending a discovery signal on all unlicensed carriers in the first carrier set, so that a user equipment measures the discovery signal and obtains a measurement result of all the unlicensed carriers in the first carrier set, wherein the measurement result comprises: presence of access points on each of the unlicensed carriers; and receiving , by the access point, the measurement result performed by the user equipment on all the unlicensed carriers in the first carrier set, and selecting unlicensed carriers satisfying a second condition from the first carrier set based on the measurement result as carrier resources of the access point; wherein the first condition comprises: the carrier energy being less than a first set threshold or the carrier sensing being less than a second set threshold or the number of occupied subcarriers in the carrier being below a third set threshold; and the second condition comprises: the number of the neighbouring access points in each of the unlicensed carriers being below a fourth set threshold or the discovery signal intensity being greater than a fifth set threshold or the carrier load being below a sixth set threshold. selecting , by an access point, unlicensed carriers satisfying a first condition from unlicensed carriers as a first carrier set; sending a discovery signal on all unlicensed carriers in the first carrier set, so that a user equipment measures the discovery signal and obtains a measurement result of all the unlicensed carriers in the first carrier set, wherein the measurement result comprises: presence of access points on each of the unlicensed carriers; and receiving , by the access point, the measurement result performed by the user equipment on all the unlicensed carriers in the first carrier set, and selecting unlicensed carriers satisfying a second condition from the first carrier set based on the measurement result as carrier resources of the access point; wherein the first condition comprises: the carrier energy being less than a first set threshold or the carrier sensing being less than a second set threshold or the number of occupied subcarriers in the carrier being below a third set threshold; and the second condition comprises: the number of the neighbouring access points in each of the unlicensed carriers being below a fourth set threshold or the discovery signal intensity being greater than a fifth set threshold or the carrier load being below a sixth set threshold. the carrier energy being less than a first set threshold or the carrier sensing being less than a second set threshold or the number of occupied subcarriers in the carrier being below a third set threshold; and the second condition comprises: the number of the neighbouring access points in each of the unlicensed carriers being below a fourth set threshold or the discovery signal intensity being greater than a fifth set threshold or the carrier load being below a sixth set threshold.
A composition to produce elastomeric microcellular foam comprising a polyisocyanate, a compound with at least two groups reactive toward isocyanates, a lactam, a surfactant, and a blowing agent. a polyisocyanate, a compound with at least two groups reactive toward isocyanates, a lactam, a surfactant, and a blowing agent.
A method for operating a central unit, CU, of a base station in a wireless communication system, the method comprising: receiving (Step 0b), from a distributed unit, DU, of the base station, an initial UL radio resource control, RRC, message; transmitting (Step 1), to the DU, of the base station, a setup request message including first identification information for an uplink, UL, carrier and second identification information for a supplementary uplink, SUL, carrier, wherein the setup request message includes one of an indication to only configure the UL carrier for a user equipment, LTE, or an indication to only configure the SUL carrier for the UE, or an indication to configure the UL carrier and the SUL carrier for the UE; and receiving (Step 2), from the DU of the base station, a setup response message, wherein the setup response message includes a UE-specific configuration for a physical uplink shared channel, PUSCH, on the SUL carrier; wherein, if the initial LTL RRC message includes a SUL access indication information, the SUL access indication information indicates that the LTE has performed random access on the at least one SUL carrier. receiving (Step 0b), from a distributed unit, DU, of the base station, an initial UL radio resource control, RRC, message; transmitting (Step 1), to the DU, of the base station, a setup request message including first identification information for an uplink, UL, carrier and second identification information for a supplementary uplink, SUL, carrier, wherein the setup request message includes one of an indication to only configure the UL carrier for a user equipment, LTE, or an indication to only configure the SUL carrier for the UE, or an indication to configure the UL carrier and the SUL carrier for the UE; and receiving (Step 2), from the DU of the base station, a setup response message, wherein the setup response message includes a UE-specific configuration for a physical uplink shared channel, PUSCH, on the SUL carrier; wherein, if the initial LTL RRC message includes a SUL access indication information, the SUL access indication information indicates that the LTE has performed random access on the at least one SUL carrier.
A method for providing access to live video data from a plurality of cameras in a DVM system, the method including: maintaining, for each camera, data indicative of relatedness scores for one or more other cameras in the DVM system; providing functionality via the user interface thereby to enable convenient access to one or more cameras with highest relatedness scores for a camera that is currently being viewed by a user; and monitoring user activity in the DVM system, characterised by : maintaining data indicative of a set of observable actions and a set of score adjustment rules; and upon monitoring one of the observable actions relating to a target camera and a second camera, updating, for the target camera, the relatedness score for the second camera based on the score adjustment rules. maintaining, for each camera, data indicative of relatedness scores for one or more other cameras in the DVM system; providing functionality via the user interface thereby to enable convenient access to one or more cameras with highest relatedness scores for a camera that is currently being viewed by a user; and monitoring user activity in the DVM system, characterised by : maintaining data indicative of a set of observable actions and a set of score adjustment rules; and upon monitoring one of the observable actions relating to a target camera and a second camera, updating, for the target camera, the relatedness score for the second camera based on the score adjustment rules. maintaining data indicative of a set of observable actions and a set of score adjustment rules; and upon monitoring one of the observable actions relating to a target camera and a second camera, updating, for the target camera, the relatedness score for the second camera based on the score adjustment rules.
A method for pileup correction in a non-paralyzable energy-discriminating photon-counting x-ray detector operating based on a number of energy bins, wherein the method comprises adding, for each of a number of energy bins, a correction term to the detected signal of the energy bin, said correction term being a product of two separable parameterized functions, each of which includes at least one parameter, where a first parameterized function depends on a weighted sum of the detected signal over the energy bins, and where a second parameterized function depends on the detected signal(s) in one or several energy bin(s).