mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a data model, wherein the method comprises: creating, by a network element, an optical path, wherein the optical path comprises an optical signal with at least one wavelength, wherein the network element comprises an optical amplifier; selecting, by the network element, a plurality of different first optical signal groups from the optical path by adjusting the quantity of wavelengths and/or input optical power of the optical path; obtaining, by the network element, first data of the first optical signal groups, wherein the first data comprises input optical power and an input optical signal-to-noise ratio of each optical signal at an input end of the network element and output optical power and an output optical signal-to-noise ratio of each optical signal at an output end of the network element; and establishing, by the network element, a first model for the network element based on the first data of the first optical signal groups, wherein the first model is used to determine a noise coefficient and a gain at the output end of the network element. creating, by a network element, an optical path, wherein the optical path comprises an optical signal with at least one wavelength, wherein the network element comprises an optical amplifier; selecting, by the network element, a plurality of different first optical signal groups from the optical path by adjusting the quantity of wavelengths and/or input optical power of the optical path; obtaining, by the network element, first data of the first optical signal groups, wherein the first data comprises input optical power and an input optical signal-to-noise ratio of each optical signal at an input end of the network element and output optical power and an output optical signal-to-noise ratio of each optical signal at an output end of the network element; and establishing, by the network element, a first model for the network element based on the first data of the first optical signal groups, wherein the first model is used to determine a noise coefficient and a gain at the output end of the network element.
Elevator installation having a shaft (16; 116), in which at least two lift cars (12, 14; 112, 114) are arranged above one another and can be moved separately from one another upwards and downwards in the vertical direction, each lift car (12, 14; 112, 114) being assigned a drive (26, 30; 126, 130) for moving the lift car (12, 14; 112, 114), it being possible for at least two lift cars (12, 14; 112, 114) to be coupled to one another via a variable-length releasable coupling device (34; 134), characterized in that the spacing between the lift cars (12, 14; 112, 114) which are coupled to one another is variable with the aid of at least one of the drives (26, 30; 126, 130) in a manner which is dependent on the relative speed between the two lift cars (12, 14; 112, 114).
Aircraft navigation system comprising: - a navigation-map data source, navigation-map data provided by the navigation-map data source including information about a multitude of objects O on earth surface which are of high potential visibility and high potential identifiability from elevated positions, each information for an object O ∈ O including a position and a type of the respective object O; - a first system for measuring an actual aircraft position P(t); - a waypoint data source providing waypoints WP i defining an aircraft intended flight track; - a second system for selecting per waypoint WP i one object O i (WP i) with O i (WP i) ∈ O depending on given selection criteria; and - a display for displaying an information I(O i (WP i) referring to the selected object O i (WP i); characterized in that the selection criteria consider - a distance d i,n between a waypoint WP i and positions of neighbouring objects O n (WP i), with O n ∈ O, and - a ranking index of the neighbouring objects O n (WP i) concerning their potential visibility and potential identifiability; and wherein the ranking index for each object O ∈ O concerning its potential visibility and potential identifiability is based on the relative size of the object O compared to an environment E of the object O and/or on a visible brightness contrast and/or a visible colour contrast between the object O and the environment E of the object O and/or the geometric shape the object O. - a navigation-map data source, navigation-map data provided by the navigation-map data source including information about a multitude of objects O on earth surface which are of high potential visibility and high potential identifiability from elevated positions, each information for an object O ∈ O including a position and a type of the respective object O; - a first system for measuring an actual aircraft position P(t); - a waypoint data source providing waypoints WP i defining an aircraft intended flight track; - a second system for selecting per waypoint WP i one object O i (WP i) with O i (WP i) ∈ O depending on given selection criteria; and - a display for displaying an information I(O i (WP i) referring to the selected object O i (WP i); - a distance d i,n between a waypoint WP i and positions of neighbouring objects O n (WP i), with O n ∈ O, and - a ranking index of the neighbouring objects O n (WP i) concerning their potential visibility and potential identifiability; and
A nanodiamond containing thermoplastic thermal composite comprising: from 0.01 to 80 wt.-% of nanodiamond particles; from 1 to 90 wt.-% of at least one filler; and from 5 to 80 wt.-% of at least one thermoplastic polymer. from 0.01 to 80 wt.-% of nanodiamond particles; from 1 to 90 wt.-% of at least one filler; and from 5 to 80 wt.-% of at least one thermoplastic polymer.
A system for setting one of more pacing parameters used by an implantable cardiac rhythm management device in delivering cardiac resynchronization therapy, comprising: an implantable cardiac rhythm management device which includes: an atrial sensing channel for generating electrogram signals corresponding to electrical activity in an atrium; right and left ventricular sensing channels for generating electrogram signals corresponding to electrical activity in the right and left ventricles, respectively; right and left ventricular pacing channels for delivering pacing pulses to the right and left ventricles, respectively; a controller for controlling the output of pacing pulses and interpreting electrogram signals, wherein the controller is programmed to deliver a left ventricular pace and a right ventricular pace separated by a programmed biventricular offset interval in accordance with a demand pacing mode; and, a telemetry interface; an external programmer with associated display and input means in communication with the implantable device via the telemetry interface; characterised in that the system is programmed to generate signals from which the delay between right ventricular and left ventricular activation during an intrinsic beat, referred to as the Δ RL interval, may be measured; and, wherein the system is programmed to compute an optimum biventricular offset interval in accordance with a formula which expresses the optimum biventricular offset interval as a function of the measured Δ RL interval. an implantable cardiac rhythm management device which includes: an atrial sensing channel for generating electrogram signals corresponding to electrical activity in an atrium; right and left ventricular sensing channels for generating electrogram signals corresponding to electrical activity in the right and left ventricles, respectively; right and left ventricular pacing channels for delivering pacing pulses to the right and left ventricles, respectively; a controller for controlling the output of pacing pulses and interpreting electrogram signals, wherein the controller is programmed to deliver a left ventricular pace and a right ventricular pace separated by a programmed biventricular offset interval in accordance with a demand pacing mode; and, a telemetry interface; an external programmer with associated display and input means in communication with the implantable device via the telemetry interface; characterised in that the system is programmed to generate signals from which the delay between right ventricular and left ventricular activation during an intrinsic beat, referred to as the Δ RL interval, may be measured; and, wherein the system is programmed to compute an optimum biventricular offset interval in accordance with a formula which expresses the optimum biventricular offset interval as a function of the measured Δ RL interval.
An airfoil, comprising: an airfoil section having an external wall and an internal wall; a first cavity and a second cavity separated by said internal wall, said internal wall defining a first reference plane extending in a spanwise direction and through said first cavity and said second cavity; a first set of ports and a second set of ports (698, 699) distributed along said internal wall in said spanwise direction and positioned on opposite sides of said first reference plane; a plurality of crossover passages within said internal wall and connecting said first cavity to said second cavity, said plurality of crossover passages arranged such that a passage axis of each of said plurality of crossover passages intersects a surface of said second cavity, wherein said plurality of crossover passages includes a first set (686b, 686e) of crossover passages connected to a common one of said first set of ports (699b, 699e) and a second set (686c, 686f) of crossover passages connected to a common one of said second set of ports (699c, 699e); and characterized in that said first set of crossover passages are distributed such that a cross-sectional area of said each of said first set of crossover passages increases in said spanwise direction. an airfoil section having an external wall and an internal wall; a first cavity and a second cavity separated by said internal wall, said internal wall defining a first reference plane extending in a spanwise direction and through said first cavity and said second cavity; a first set of ports and a second set of ports (698, 699) distributed along said internal wall in said spanwise direction and positioned on opposite sides of said first reference plane; a plurality of crossover passages within said internal wall and connecting said first cavity to said second cavity, said plurality of crossover passages arranged such that a passage axis of each of said plurality of crossover passages intersects a surface of said second cavity, wherein said plurality of crossover passages includes a first set (686b, 686e) of crossover passages connected to a common one of said first set of ports (699b, 699e) and a second set (686c, 686f) of crossover passages connected to a common one of said second set of ports (699c, 699e); and characterized in that said first set of crossover passages are distributed such that a cross-sectional area of said each of said first set of crossover passages increases in said spanwise direction.
A method of fault detection of a belt or rope in an elevator system comprising: connecting a fault detection unit to at least a portion of a belt or rope including a plurality of wires arranged in a plurality of strands and/or cords characterized by; subjecting at least the portion of the belt or rope to an AC voltage; measuring an electrical impedance of the at least one portion of the belt or rope over a range of frequencies via the fault detection unit; and determining, using at least the measured electrical impedance of the at least one portion of the belt or rope, a fault condition of the belt or rope. connecting a fault detection unit to at least a portion of a belt or rope including a plurality of wires arranged in a plurality of strands and/or cords characterized by; subjecting at least the portion of the belt or rope to an AC voltage; measuring an electrical impedance of the at least one portion of the belt or rope over a range of frequencies via the fault detection unit; and determining, using at least the measured electrical impedance of the at least one portion of the belt or rope, a fault condition of the belt or rope.
A coil for an antenna, comprising: a ferrite core; and a winding conductor comprising a conducting wire wound around the ferrite core as a core bar, wherein the winding conductor includes an inner winding positioned inside when viewed from a plane perpendicular to the core bar, and an outer winding positioned outside of the inner winding, wherein a length of the outer winding when viewed from a plane parallel to the core bar is different from a length of the inner winding, wherein the length of the outer winding is greater than or equal to 50% and less than or equal to 85% of the length of the inner winding, wherein the outer winding is the conducting wire continuous with the inner winding, and wherein the impedance of the coil is 4 kΩ or more in the entire frequency range of an AM band. a ferrite core; and a winding conductor comprising a conducting wire wound around the ferrite core as a core bar, wherein the winding conductor includes an inner winding positioned inside when viewed from a plane perpendicular to the core bar, and an outer winding positioned outside of the inner winding, wherein a length of the outer winding when viewed from a plane parallel to the core bar is different from a length of the inner winding, wherein the length of the outer winding is greater than or equal to 50% and less than or equal to 85% of the length of the inner winding, wherein the outer winding is the conducting wire continuous with the inner winding, and wherein the impedance of the coil is 4 kΩ or more in the entire frequency range of an AM band.
A containment unit for facilitating parcel delivery, the containment unit comprising: a housing floor having an edge; and a movable housing unit, the housing unit movable from a retracted position to an extended position, the housing unit comprising: a first sidewall and a second sidewall, each of the first sidewall and the second sidewall having a first end and a second end; a first end piece connecting the first end of the first sidewall and the first end of the second sidewall; and a bottom opening between the first sidewall and the second sidewall, wherein when the housing unit is in the retracted position, the first sidewall and the second sidewall are above the housing floor, and wherein when the housing unit is in the extended position, at least a portion of both the first sidewall and the second sidewall extends beyond the edge of the housing floor, said containment unit further comprising a movement mechanism, the housing unit being movable from the retracted position to the extended position using the movement mechanism, wherein the housing unit is an inner housing unit, the first sidewall is a first inner sidewall, and the second sidewall is a second inner sidewall, the containment unit further comprising an outer housing unit around the inner housing unit, and wherein when in the retracted position, the outer housing unit covers the inner housing unit, wherein when in the extended position, at least a portion of the inner housing unit is not covered by the outer housing unit and characterized in that the parcel can be placed through the bottom opening between the first sidewall and the second sidewall when the housing unit is in the extended position. said containment unit further comprising a movement mechanism, the housing unit being movable from the retracted position to the extended position using the movement mechanism, wherein the housing unit is an inner housing unit, the first sidewall is a first inner sidewall, and the second sidewall is a second inner sidewall, the containment unit further comprising an outer housing unit around the inner housing unit, and wherein when in the retracted position, the outer housing unit covers the inner housing unit, wherein when in the extended position, at least a portion of the inner housing unit is not covered by the outer housing unit and characterized in that the parcel can be placed through the bottom opening between the first sidewall and the second sidewall when the housing unit is in the extended position.
A resin molded electromagnetic drive coil unit comprising: a stator assembly including a cylindrical yoke (110, 130) having magnetic pole teeth (112, 114, 132, 134) formed therein, a stator coil (120, 140), and a power supply terminal (122, 142) that is connected to the stator coil (120, 140), wherein the stator coil (120, 140) is molded in a resin, a connector frame member surrounding the power supply terminal (122, 142), wherein said connector frame member is molded, said connector frame member is inserted into the stator assembly further characterized in that a resin mold being formed to bond with the stator assembly and with the connector frame member such that the stator assembly and the connector frame member form an unified body. a stator assembly including a cylindrical yoke (110, 130) having magnetic pole teeth (112, 114, 132, 134) formed therein, a stator coil (120, 140), and a power supply terminal (122, 142) that is connected to the stator coil (120, 140), wherein the stator coil (120, 140) is molded in a resin, a connector frame member surrounding the power supply terminal (122, 142), wherein said connector frame member is molded, said connector frame member is inserted into the stator assembly further characterized in that a resin mold being formed to bond with the stator assembly and with the connector frame member such that the stator assembly and the connector frame member form an unified body.
A stage (ST1 to STn), comprising: an output configured to supply a voltage of a first power source or a second power source to an output terminal based on voltages of a first node and a second node; an input configured to control voltages of a third node and a fourth node based on signals supplied to a first input terminal and a second input terminal; a first signal processor configured to control the voltage of the first node based on the voltage of the second node; a second signal processor, connected to a fifth node, and configured to control the voltage of the first node based on a signal supplied to a third input terminal; and a third signal processor configured to control the voltage of the fourth node based on the voltage of the third node and the signal supplied to the third input terminal; characterized in that the stage further comprises: a first stabilizer connected between the second signal processor and the input and comprising: a first transistor connected between the third node and the fifth node and having a gate electrode connected to the second power source; and a second transistor connected between the second node and the fourth node and having a gate electrode connected to the second power source. an output configured to supply a voltage of a first power source or a second power source to an output terminal based on voltages of a first node and a second node; an input configured to control voltages of a third node and a fourth node based on signals supplied to a first input terminal and a second input terminal; a first signal processor configured to control the voltage of the first node based on the voltage of the second node; a second signal processor, connected to a fifth node, and configured to control the voltage of the first node based on a signal supplied to a third input terminal; and a third signal processor configured to control the voltage of the fourth node based on the voltage of the third node and the signal supplied to the third input terminal; a first transistor connected between the third node and the fifth node and having a gate electrode connected to the second power source; and a second transistor connected between the second node and the fourth node and having a gate electrode connected to the second power source.
A tubular component for a threaded connection, having at one of its ends (1; 2) a threaded zone (3; 4) formed on its external or internal peripheral surface depending on whether the threaded end is of the male or female type, said end (1; 2) finishing in a terminal surface (7; 8), said threaded zone (3; 4) having, over at least a portion, threads (32; 42) comprising, when viewed in longitudinal section passing through the axis of the tubular component, a thread crest (35, 45), a thread root (36, 46), a load flank (30, 40), a stabbing flank (32, 42), the width of the thread crests (35, 45) reducing in the direction of the terminal surface (7, 8) while the width of the thread roots (36, 46) increases, characterized in that the profile of the load flanks (30; 40) and/or the stabbing flanks (31; 41), viewed in longitudinal section passing through the axis of the tubular component, has as a central portion a continuous curve provided with a point of inflection, said profile being convex close to the thread crest and concave close to the thread root.
A radio resource management measurement method in a licensed-assisted access using Long Term Evolution, LAA-LTE, comprising: Receiving, by a terminal device, indication information sent by a network device, wherein the indication information indicates a time-frequency resource used to perform received signal strength indicator, RSSI, measurement on an unlicensed carrier; Performing, by the terminal device on the time-frequency resource, the RSSI measurement on the unlicensed carrier to obtain an RSSI measurement result; and Sending, by the terminal device, the RSSI measurement result to the network device; characterized in that: the indication information comprises information about an RSSI measurement time window and information about an RSSI measurement granularity, wherein the RSSI measurement granularity represents a minimum time resource unit for obtaining an RSSI and the RSSI measurement time window is an integer multiple of the RSSI measurement granularity. Receiving, by a terminal device, indication information sent by a network device, wherein the indication information indicates a time-frequency resource used to perform received signal strength indicator, RSSI, measurement on an unlicensed carrier; Performing, by the terminal device on the time-frequency resource, the RSSI measurement on the unlicensed carrier to obtain an RSSI measurement result; and Sending, by the terminal device, the RSSI measurement result to the network device; characterized in that: the indication information comprises information about an RSSI measurement time window and information about an RSSI measurement granularity, wherein the RSSI measurement granularity represents a minimum time resource unit for obtaining an RSSI and the RSSI measurement time window is an integer multiple of the RSSI measurement granularity.