mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument, comprising: an outer shaft; an end effector coupled to the outer shaft; a rotatable drive shaft coaxially disposed within an inner lumen of the outer shaft; a non-rotating elongate member coaxially disposed within an inner lumen of the drive shaft; a plurality of selectively engageable clutches (6110, 6210, 6310) configured to transfer torque from the rotatable drive shaft to the end effector; and a plurality of sensors (6180', 6280', 6380') disposed along the non-rotating elongate member; wherein each clutch of the plurality of clutches is configured to convert rotation of the drive shaft into one of a plurality of movements of the end effector relative to the outer shaft; and wherein each sensor of the plurality of sensors is configured to detect one of clutches in an engaged state or one of the end effector movements. an outer shaft; an end effector coupled to the outer shaft; a rotatable drive shaft coaxially disposed within an inner lumen of the outer shaft; a non-rotating elongate member coaxially disposed within an inner lumen of the drive shaft; a plurality of selectively engageable clutches (6110, 6210, 6310) configured to transfer torque from the rotatable drive shaft to the end effector; and a plurality of sensors (6180', 6280', 6380') disposed along the non-rotating elongate member; wherein each clutch of the plurality of clutches is configured to convert rotation of the drive shaft into one of a plurality of movements of the end effector relative to the outer shaft; and wherein each sensor of the plurality of sensors is configured to detect one of clutches in an engaged state or one of the end effector movements.
A wear-resistant material produced by powdered metallurgy comprising an alloy containing: 1.5 - 5.5 % by wt. carbon 0.1 - 2.0 % by wt. silicon max. 2.0 % by wt. manganese 3.5 - 30.0 % by wt. chromium 0.3 - 10 % by wt. molybdenum 0 - 10 % by wt. wolfram 0.1 - 30 % by wt. vanadium 0 - 12 % by wt. niobium 0.1 - 12 % by wt. titanium 2.0 - 3.5 % by wt. nickel optionally 1 - 6 % by wt. cobalt optionally 0.3 - 3.5 % by wt. nitrogen remainder iron and production-related impurities, wherein the carbon content satisfies the following conditions: C alloy w % = S 1 + S 2 + S 3 where: S 1 = Nb + 2 Ti + V − 0.9 / a S 2 = Mo + W / 2 + Cr − b / 5 S 3 = c + T H − 900 ⋅ 0.0025 wherein T H is the hardening temperature, 7 < a < 9 6 < b < 8 0,3 < c < 0,5 900°C<T H <1220 °C. 1.5 - 5.5 % by wt. carbon 0.1 - 2.0 % by wt. silicon max. 2.0 % by wt. manganese 3.5 - 30.0 % by wt. chromium 0.3 - 10 % by wt. molybdenum 0 - 10 % by wt. wolfram 0.1 - 30 % by wt. vanadium 0 - 12 % by wt. niobium 0.1 - 12 % by wt. titanium 2.0 - 3.5 % by wt. nickel optionally 1 - 6 % by wt. cobalt optionally 0.3 - 3.5 % by wt. nitrogen
A method of calibrating system parameter values comprising: receiving an indication of a measured spectral response of a first specimen based on a measurement of the first specimen by a target inspection system; determining a first spectral error associated with the target inspection system based on a difference between the measured spectral response of the first specimen and a modeled spectral response of the first specimen by the target inspection system, the modeled spectral response based at least in part on at least one system parameter of the target inspection system; receiving a first spectral error associated with a reference inspection system based on a difference between a measured spectral response and a modeled spectral response of the first specimen by the reference inspection system; and determining a value of the at least one system parameter of the target inspection system such that an error function that includes a difference between the first spectral error of the target inspection system and the first spectral error of the reference inspection system is minimized. receiving an indication of a measured spectral response of a first specimen based on a measurement of the first specimen by a target inspection system; determining a first spectral error associated with the target inspection system based on a difference between the measured spectral response of the first specimen and a modeled spectral response of the first specimen by the target inspection system, the modeled spectral response based at least in part on at least one system parameter of the target inspection system; receiving a first spectral error associated with a reference inspection system based on a difference between a measured spectral response and a modeled spectral response of the first specimen by the reference inspection system; and determining a value of the at least one system parameter of the target inspection system such that an error function that includes a difference between the first spectral error of the target inspection system and the first spectral error of the reference inspection system is minimized.
An environmental control system pack, comprising: a primary heat exchanger; a secondary heat exchanger; an air cycle machine arranged in fluid communication with at least one of the primary heat exchanger and secondary heat exchanger, the air cycle machine includes a compressor and a plurality of turbines (112, 114, 116) disposed at a first shaft, wherein discharged cabin air is supplied to at least one of the plurality of turbines (112, 114, 116) to operate the compressor of the air cycle machine; wherein the ECS pack is configured to condition bleed air from at least one of an engine and an auxiliary power unit and provide the conditioned air to a cabin; characterized in that the ECS pack further comprises a fan and a fan turbine disposed at a second shaft, non-coaxial with the first shaft, to urge a flow of ram air across the primary heat exchanger and the secondary heat exchanger; wherein the discharged cabin air is pressurized in the compressor of the air cycle machine and cooled in the secondary heat exchanger. a primary heat exchanger; a secondary heat exchanger; an air cycle machine arranged in fluid communication with at least one of the primary heat exchanger and secondary heat exchanger, the air cycle machine includes a compressor and a plurality of turbines (112, 114, 116) disposed at a first shaft, wherein discharged cabin air is supplied to at least one of the plurality of turbines (112, 114, 116) to operate the compressor of the air cycle machine; wherein the ECS pack is configured to condition bleed air from at least one of an engine and an auxiliary power unit and provide the conditioned air to a cabin; characterized in that the ECS pack further comprises a fan and a fan turbine disposed at a second shaft, non-coaxial with the first shaft, to urge a flow of ram air across the primary heat exchanger and the secondary heat exchanger; wherein the discharged cabin air is pressurized in the compressor of the air cycle machine and cooled in the secondary heat exchanger.
An ink composition for printable thermoelectric materials, comprising: a precursor material for a thermoelectric material, a precursor material for an inorganic binder comprising a mixture of Cu, Se and S powder, an organic binder, and an organic solvent, wherein the molar ratio of the Cu powder to the total of Se and S powder combined is 2: 1 and wherein the molar ratio of the Se powder to the S powder expressed by the formula (1-x)Se: xS is in the range of 0 ≤ x ≤ 0.20; and wherein the weight ratio of the precursor material for a thermoelectric material to the precursor material for an inorganic binder expressed as [(1-y) thermoelectric material: y inorganic binder] is in the range of 0 < y ≤ 0.25. a precursor material for a thermoelectric material, a precursor material for an inorganic binder comprising a mixture of Cu, Se and S powder, an organic binder, and an organic solvent, wherein the molar ratio of the Cu powder to the total of Se and S powder combined is 2: 1 and wherein the molar ratio of the Se powder to the S powder expressed by the formula (1-x)Se: xS is in the range of 0 ≤ x ≤ 0.20; and wherein the weight ratio of the precursor material for a thermoelectric material to the precursor material for an inorganic binder expressed as [(1-y) thermoelectric material: y inorganic binder] is in the range of 0 < y ≤ 0.25.
An ultraviolet light-emitting module for disinfecting one or more components, the UV light-emitting module comprising: an enclosure comprising: a rear wall; a face plate spaced from the rear wall and comprising a light-transmitting aperture; and at least one sidewall (330, 334, 338, 342) extending between the rear wall and the face plate; and at least one UV light emitter within the enclosure, wherein a ventilation opening (348, 349, 352, 353) is located in one or more walls selected from the rear wall and the at least one sidewall; characterized in that the ultraviolet light-emitting module comprises three or more UV light emitter supports (452, 455, 457) within the enclosure, wherein the three or more UV light emitter supports (452, 455, 457) comprise an aluminum UV light emitter support located between a first fluoropolymer UV light emitter support (452, 457) and a second fluoropolymer UV light emitter support (452, 457). an enclosure comprising: a rear wall; a face plate spaced from the rear wall and comprising a light-transmitting aperture; and at least one sidewall (330, 334, 338, 342) extending between the rear wall and the face plate; and a rear wall; a face plate spaced from the rear wall and comprising a light-transmitting aperture; and at least one sidewall (330, 334, 338, 342) extending between the rear wall and the face plate; and at least one UV light emitter within the enclosure, wherein a ventilation opening (348, 349, 352, 353) is located in one or more walls selected from the rear wall and the at least one sidewall; characterized in that the ultraviolet light-emitting module comprises three or more UV light emitter supports (452, 455, 457) within the enclosure, wherein the three or more UV light emitter supports (452, 455, 457) comprise an aluminum UV light emitter support located between a first fluoropolymer UV light emitter support (452, 457) and a second fluoropolymer UV light emitter support (452, 457).
An installation comprising several treatment stations for constructing a solar panel comprising a stack of components, and a carrier for use with said treatment stations and securely supporting the stack, which carrier can be displaced between the treatment stations successively from the first to the last treatment station, wherein the treatment stations each comprise a frame comprising a top conveyor belt system including two endless conveyor belts which extend next to one another and are deflected around end rollers, wherein the treatment stations each comprise positioning supports (30,31) and the carrier comprises countersupports (33,34) for positioning the carrier in a predetermined position with respect to a treatment station upon arrival of the carrier to said treatment station, characterised in that the positioning supports (30, 31) are situated inside boundaries of the top conveyor belt system, and wherein the countersupports (33, 34) of the carrier are provided with a receiving opening which is shaped in accordance with the associated positioning supports (30, 31), wherein the positioning supports are moved upwards upon arrival of the carrier above the frame, so as to insert the positioning supports into the countersupports.
A liquid heater comprising: a tank configured to store liquid; an inlet pipe to supply liquid to the tank; a heater (113, 115) to heat the liquid; an outlet pipe to discharge heated liquid; an electronic device provided at an outside of the tank; an insulator provided at an outer surface of the tank; a case (200, 310, 320, 340, 350) forming an external appearance provided at an outer side of the insulation, wherein the case includes: a first panel configured to cover a first portion of the insulator; a second panel configured to cover a second portion of the insulator; a cover panel provided between the first panel and the second panel, the cover panel being configured to be removed to allow access to the electronic device, characterized by a space provided in the insulator; a heater mount provided in the space to support the heater (113, 115); a heater cover to cover the space, wherein the electronic device is configured to supply power to the heater (113, 115) and the electronic device is provided in the space; and the cover panel is provided at an outer side of the heater cover. a tank configured to store liquid; an inlet pipe to supply liquid to the tank; a heater (113, 115) to heat the liquid; an outlet pipe to discharge heated liquid; an electronic device provided at an outside of the tank; an insulator provided at an outer surface of the tank; a case (200, 310, 320, 340, 350) forming an external appearance provided at an outer side of the insulation, wherein the case includes: a first panel configured to cover a first portion of the insulator; a second panel configured to cover a second portion of the insulator; a cover panel provided between the first panel and the second panel, the cover panel being configured to be removed to allow access to the electronic device, characterized by a space provided in the insulator; a heater mount provided in the space to support the heater (113, 115); a heater cover to cover the space, wherein the electronic device is configured to supply power to the heater (113, 115) and the electronic device is provided in the space; and the cover panel is provided at an outer side of the heater cover. a first panel configured to cover a first portion of the insulator; a second panel configured to cover a second portion of the insulator; a cover panel provided between the first panel and the second panel, the cover panel being configured to be removed to allow access to the electronic device, characterized by a space provided in the insulator; a heater mount provided in the space to support the heater (113, 115); a heater cover to cover the space, wherein the electronic device is configured to supply power to the heater (113, 115) and the electronic device is provided in the space; and the cover panel is provided at an outer side of the heater cover.
A dual arch anterior dental impression tray comprising: a generally opened C-shaped mouthpiece, the mouthpiece having a front side, a back side, an upper rim, a lower rim, a left end and a right end, the back side having a concave surface extending from the left end to the right end, the concave surface including a generally longitudinally extending curved groove, the left end and right end each include a connector, and an insert, the insert including a front portion having a curved frame, the curved frame includes a left end and a right end, the curved frame is adapted to fit snugly into the curved groove, the insert includes a mesh material extending from and within an area defined by the curved frame, the curved frame left end and right end each include a connector, wherein the insert left connector is adapted to connect with the mouthpiece left connector and the insert right connector is adapted to connect with the mouthpiece right connector, characterized in that the insert includes a back portion with a hemispherical shaped portion located at a mid portion of the back portion, the hemispherical shaped portion defining an opening which faces away from the front portion of the insert, the insert defining a top side and a bottom side, wherein the hemispherical shaped portion includes a slit extending along the top side from the opening and towards the front portion of the insert. a generally opened C-shaped mouthpiece, the mouthpiece having a front side, a back side, an upper rim, a lower rim, a left end and a right end, the back side having a concave surface extending from the left end to the right end, the concave surface including a generally longitudinally extending curved groove, the left end and right end each include a connector, and an insert, the insert including a front portion having a curved frame, the curved frame includes a left end and a right end, the curved frame is adapted to fit snugly into the curved groove, the insert includes a mesh material extending from and within an area defined by the curved frame, the curved frame left end and right end each include a connector, wherein the insert left connector is adapted to connect with the mouthpiece left connector and the insert right connector is adapted to connect with the mouthpiece right connector, characterized in that the insert includes a back portion with a hemispherical shaped portion located at a mid portion of the back portion, the hemispherical shaped portion defining an opening which faces away from the front portion of the insert, the insert defining a top side and a bottom side, wherein the hemispherical shaped portion includes a slit extending along the top side from the opening and towards the front portion of the insert.
A copper alloy sheet material consisting of, in mass%, Fe: 0.05 to 2.50%, Mg: 0.03 to 1.00%, P: 0.01 to 0.20%, and optionally Sn: 0.50% or less, Ni: 0.30% or less, Zn: 0.30% or less, Si: 0.10% or less, Co: 0.10% or less, Cr: 0.10% or less, B: 0.10% or less, Zr: 0.10% or less, Ti: 0.10% or less, Mn: 0.10% or less, and V: 0.10% or less, and a total content of optional elements of 0.50% or less, the balance being Cu and inevitable impurities, having a chemical composition that satisfies the following equation and having an electrical conductivity of 65% IACS or more, the copper alloy sheet material being such that when the average Mg concentration (mass%) in a Cu matrix part determined by EDX analysis through TEM observation at a magnification of 100,000 is defined as the amount of dissolved Mg, the Mg solid-solution ratio defined by the following equation is 50% or more, the density of an Fe-P-based compound having a size defined as a maximum dimension of a particle observed by TEM of 50 nm or more is from 0.05 to 10.00 particles/10 μm 2 or less, and the density of a Mg-P-based compound having a size defined as a maximum dimension of a particle observed by TEM of 100 nm or more is from 0.05 to 10.00 particles/10 μm 2 or less: Mg − 1.18 P − Fe / 3.6 ≥ 0.03 Mg solid-solution ratio % = the amount of dissolved Mg mass % / the total Mg content mass % × 100 wherein the element symbols Mg, P, and Fe in the equation are substituted with the contents of the respective elements in mass%.
One or more computer storage media having stored thereon multiple instructions that, when executed by one or more processors of a device, cause the one or more processors to: receive a user input via a soft keyboard, the soft keyboard including multiple keys; obtain information describing a current input environment for the soft keyboard; use the current input environment and user input to alter the size of at least one hit target assigned to one of the multiple keys, including increasing the hit target of the key in size so that more locations on the soft keyboard correspond to the key, or decreasing the hit target of the key in size so that fewer locations on the soft keyboard correspond to the key, wherein in case of an increase of the hit target of the key, the hit target extends over a portion of the display of the adjacent key and the hit target of the adjacent key is decreased, and determine, based at least in part on the current input environment, which one or more keys of the multiple keys was intended to be selected by the user input. receive a user input via a soft keyboard, the soft keyboard including multiple keys; obtain information describing a current input environment for the soft keyboard; use the current input environment and user input to alter the size of at least one hit target assigned to one of the multiple keys, including increasing the hit target of the key in size so that more locations on the soft keyboard correspond to the key, or decreasing the hit target of the key in size so that fewer locations on the soft keyboard correspond to the key, wherein in case of an increase of the hit target of the key, the hit target extends over a portion of the display of the adjacent key and the hit target of the adjacent key is decreased, and determine, based at least in part on the current input environment, which one or more keys of the multiple keys was intended to be selected by the user input.
A user equipment UE comprising circuitry (124, 132, 136, 140) to: receive, in a radio-resource control,RRC, message, a configuration parameter to be used to establish a state-transition disable period and a tracking window; determine a number of state transitions in the tracking window; if the number of state transitions is equal to or greater than a predetermined threshold: set an inactivity timer to the state-transition disable period; start the inactivity timer; delay a request for a subsequent state transition for a time period at least equal to the state-transition disable period based on the inactivity timer; wherein the request for the subsequent state transition is a message to be sent to an Evolved Node B, eNB, and wherein the state transition involves changing a discontinuous reception, DRX, configuration. receive, in a radio-resource control,RRC, message, a configuration parameter to be used to establish a state-transition disable period and a tracking window; determine a number of state transitions in the tracking window; if the number of state transitions is equal to or greater than a predetermined threshold: set an inactivity timer to the state-transition disable period; start the inactivity timer; delay a request for a subsequent state transition for a time period at least equal to the state-transition disable period based on the inactivity timer; wherein the request for the subsequent state transition is a message to be sent to an Evolved Node B, eNB, and wherein the state transition involves changing a discontinuous reception, DRX, configuration. set an inactivity timer to the state-transition disable period; start the inactivity timer; delay a request for a subsequent state transition for a time period at least equal to the state-transition disable period based on the inactivity timer; wherein the request for the subsequent state transition is a message to be sent to an Evolved Node B, eNB, and wherein the state transition involves changing a discontinuous reception, DRX, configuration.