mhurhangee/ep-ind-claims huggingface dataset:
A medical device, comprising: a shaft, including: a distal tip including a distal-facing surface, a fluid lumen extending to the distal tip, a nozzle at a distal end of the fluid lumen, wherein the nozzle is configured to emit a fluid jet from the distal tip, a vacuum lumen extending to the distal tip, a vacuum chamber at the distal tip, wherein the vacuum lumen opens into the vacuum chamber, and the vacuum chamber is wider than the vacuum lumen, and a vacuum opening, wherein the vacuum chamber opens into the vacuum opening, and the vacuum opening is defined by the distal-facing surface of the distal tip, wherein the shaft includes a protrusion that extends distally from the distal-facing surface, and the fluid lumen extends distally beyond the distal-facing surface through the protrusion, wherein the protrusion extends parallel to a central longitudinal axis of the shaft, and wherein the protrusion is more flexible than the distal-facing surface. a shaft, including: a distal tip including a distal-facing surface, a fluid lumen extending to the distal tip, a nozzle at a distal end of the fluid lumen, wherein the nozzle is configured to emit a fluid jet from the distal tip, a vacuum lumen extending to the distal tip, a vacuum chamber at the distal tip, wherein the vacuum lumen opens into the vacuum chamber, and the vacuum chamber is wider than the vacuum lumen, and a vacuum opening, wherein the vacuum chamber opens into the vacuum opening, and the vacuum opening is defined by the distal-facing surface of the distal tip, a distal tip including a distal-facing surface, a fluid lumen extending to the distal tip, a nozzle at a distal end of the fluid lumen, wherein the nozzle is configured to emit a fluid jet from the distal tip, a vacuum lumen extending to the distal tip, a vacuum chamber at the distal tip, wherein the vacuum lumen opens into the vacuum chamber, and the vacuum chamber is wider than the vacuum lumen, and a vacuum opening, wherein the vacuum chamber opens into the vacuum opening, and the vacuum opening is defined by the distal-facing surface of the distal tip, wherein the shaft includes a protrusion that extends distally from the distal-facing surface, and the fluid lumen extends distally beyond the distal-facing surface through the protrusion, wherein the protrusion extends parallel to a central longitudinal axis of the shaft, and wherein the protrusion is more flexible than the distal-facing surface.
A combustor assembly for a gas turbine engine defining a circumferential direction, the combustor assembly comprising: a combustor dome and combustion chamber liner (104, 106) formed integrally of a ceramic matrix composite material, the combustor dome defining a plurality of openings for receiving a respective plurality of fuel-air injector hardware assemblies; a plurality of fuel-air injector hardware assemblies, each fuel-air injector hardware assembly attached directly to the combustor dome at a respective one of the plurality of openings, wherein preferably each fuel-air injector hardware assembly is attached directly to the combustor dome independently of an adjacent fuel-air injector hardware assembly; wherein the combustor dome includes a raised boss extending around each of the plurality of openings in the combustor dome for mounting a respective fuel-air injector hardware assembly directly to the combustor dome. a combustor dome and combustion chamber liner (104, 106) formed integrally of a ceramic matrix composite material, the combustor dome defining a plurality of openings for receiving a respective plurality of fuel-air injector hardware assemblies; a plurality of fuel-air injector hardware assemblies, each fuel-air injector hardware assembly attached directly to the combustor dome at a respective one of the plurality of openings, wherein preferably each fuel-air injector hardware assembly is attached directly to the combustor dome independently of an adjacent fuel-air injector hardware assembly; wherein the combustor dome includes a raised boss extending around each of the plurality of openings in the combustor dome for mounting a respective fuel-air injector hardware assembly directly to the combustor dome.
A low density polyethylene having a density in the interval of 900-935 kg/m 3, measured according to ISO 1183, a molecular weight distribution Mw/Mn, measured according to ISO 16014-4:2003 and ASTM D 6474-99, which is greater than 15, a storage modulus G', measured according to ISO 6721-1 and 6721-10, which is above 3000, and a vinylidene content which is at least 15 / 100k C.
A method comprising: receiving a packet at a first router (10, 20), wherein the first router is an edge router of a network; logging the packet into a demand corresponding to a cell of a demand matrix, wherein the demand identifies an amount of traffic between the first router and another edge router of the network, and wherein the demand matrix describes the aggregation of traffic flows at edge routers of the network; storing said demand in a demand database at the first router, the demand database comprising a plurality of demands computed for a specified time period and corresponding to cells of said demand matrix associated with traffic entering the network at the first router; receiving at the first router, from other edge routers in the network, demands corresponding to cells of said demand matrix associated with traffic entering the network at the other edge routers and computed and stored at the other edge routers; and generating the demand matrix at the first router. receiving a packet at a first router (10, 20), wherein the first router is an edge router of a network; logging the packet into a demand corresponding to a cell of a demand matrix, wherein the demand identifies an amount of traffic between the first router and another edge router of the network, and wherein the demand matrix describes the aggregation of traffic flows at edge routers of the network; storing said demand in a demand database at the first router, the demand database comprising a plurality of demands computed for a specified time period and corresponding to cells of said demand matrix associated with traffic entering the network at the first router; receiving at the first router, from other edge routers in the network, demands corresponding to cells of said demand matrix associated with traffic entering the network at the other edge routers and computed and stored at the other edge routers; and generating the demand matrix at the first router.
A hybrid marine power train system, comprising: a first prime mover; a transmission having, an input shaft; an overrunning clutch having first and second rotatable segments, the first rotatable segment of the overrunning clutch being connected to the input shaft of the transmission and the second rotatable segment of the overrunning clutch being connected to an output shaft of the first prime mover; a main shaft connected to and driven by the input shaft such that the input and main shafts (12, 15), at least at times, rotate in unison with each other; an output shaft connected to and driven by the main shaft; a second prime mover operably coupled to and selectively driving the main shaft of the transmission; and wherein when the second prime mover drives the main shaft of the transmission, the first segment of the overrunning clutch rotates faster than the second segment of the overrunning clutch, allowing the input shaft of the transmission to rotate faster than the output shaft of the first prime mover. a first prime mover; a transmission having, an input shaft; an overrunning clutch having first and second rotatable segments, the first rotatable segment of the overrunning clutch being connected to the input shaft of the transmission and the second rotatable segment of the overrunning clutch being connected to an output shaft of the first prime mover; a main shaft connected to and driven by the input shaft such that the input and main shafts (12, 15), at least at times, rotate in unison with each other; an output shaft connected to and driven by the main shaft; an input shaft; an overrunning clutch having first and second rotatable segments, the first rotatable segment of the overrunning clutch being connected to the input shaft of the transmission and the second rotatable segment of the overrunning clutch being connected to an output shaft of the first prime mover; a main shaft connected to and driven by the input shaft such that the input and main shafts (12, 15), at least at times, rotate in unison with each other; an output shaft connected to and driven by the main shaft; a second prime mover operably coupled to and selectively driving the main shaft of the transmission; and wherein when the second prime mover drives the main shaft of the transmission, the first segment of the overrunning clutch rotates faster than the second segment of the overrunning clutch, allowing the input shaft of the transmission to rotate faster than the output shaft of the first prime mover.
A method of charging a battery including a plurality of cells, the method comprising: charging the plurality of cells at a plurality of C-rates, respectively; calculating a voltage change (dV/dQ) of each of the plurality of cells and a slope of the voltage change with respect to a state of charge of each of the plurality of cells; and performing discharging multiple times in a section of the state of charge where a deviation between the slopes of the voltage changes with respect to the state of charge of the plurality of cells is equal to or larger than a predetermined reference value. charging the plurality of cells at a plurality of C-rates, respectively; calculating a voltage change (dV/dQ) of each of the plurality of cells and a slope of the voltage change with respect to a state of charge of each of the plurality of cells; and performing discharging multiple times in a section of the state of charge where a deviation between the slopes of the voltage changes with respect to the state of charge of the plurality of cells is equal to or larger than a predetermined reference value.
A system (1510, 1610) for applying neuromodulation to a patient having a nervous system including a dorsal horn, a dorsal root, and a dorsal column, the system (1510, 1610) comprising: a modulation output circuit configured to deliver dorsal horn stimulation to the dorsal horn and to deliver dorsal root stimulation to the dorsal root; and a modulation control circuit configured to control the delivery of the dorsal horn stimulation and the delivery of the dorsal root stimulation by executing a test algorithm for delivering the dorsal horn stimulation interleaved with the dorsal root stimulation using a plurality of modulation parameters, the modulation control circuit including: a response input configured to receive response information indicative of one or more responses to the stimulation of the dorsal horn, the one or more responses including a response to the dorsal root stimulation that is modulated by the dorsal horn stimulation and sensed in the dorsal column; and a parameter calibrator configured to adjust one or more modulation parameters of the plurality of modulation parameters using the response information. a modulation output circuit configured to deliver dorsal horn stimulation to the dorsal horn and to deliver dorsal root stimulation to the dorsal root; and a modulation control circuit configured to control the delivery of the dorsal horn stimulation and the delivery of the dorsal root stimulation by executing a test algorithm for delivering the dorsal horn stimulation interleaved with the dorsal root stimulation using a plurality of modulation parameters, the modulation control circuit including: a response input configured to receive response information indicative of one or more responses to the stimulation of the dorsal horn, the one or more responses including a response to the dorsal root stimulation that is modulated by the dorsal horn stimulation and sensed in the dorsal column; and a parameter calibrator configured to adjust one or more modulation parameters of the plurality of modulation parameters using the response information. a response input configured to receive response information indicative of one or more responses to the stimulation of the dorsal horn, the one or more responses including a response to the dorsal root stimulation that is modulated by the dorsal horn stimulation and sensed in the dorsal column; and a parameter calibrator configured to adjust one or more modulation parameters of the plurality of modulation parameters using the response information.
A method for detecting moving objects using a video camera monitoring a scene, the method comprising: capturing, using the video camera, a video stream depicting the scene; analyzing the video stream using a motion detection algorithm for detecting a location of a moving object in the scene, wherein the moving object is one of a true moving object or a stationary object exhibiting motion; comparing the location of the moving object with locations of background objects in a map of background objects comprising background objects being registered by: detecting over time radar echoes at a radar detector monitoring the scene, wherein each radar echo comprises radar echo information pertaining to a location of a moving object within the scene and a velocity of the moving object, evaluating the over time detected radar echoes for finding a stationary object exhibiting motion, and registering a background object as a presence of the stationary object exhibiting motion at a location, corresponding to the location of the stationary object evaluated as exhibiting motion, in the map of background objects; upon the location of the moving object not corresponding to a location of a background object in the map of background objects: indicating the moving object as pertaining to a true moving object. capturing, using the video camera, a video stream depicting the scene; analyzing the video stream using a motion detection algorithm for detecting a location of a moving object in the scene, wherein the moving object is one of a true moving object or a stationary object exhibiting motion; comparing the location of the moving object with locations of background objects in a map of background objects comprising background objects being registered by: detecting over time radar echoes at a radar detector monitoring the scene, wherein each radar echo comprises radar echo information pertaining to a location of a moving object within the scene and a velocity of the moving object, evaluating the over time detected radar echoes for finding a stationary object exhibiting motion, and registering a background object as a presence of the stationary object exhibiting motion at a location, corresponding to the location of the stationary object evaluated as exhibiting motion, in the map of background objects; detecting over time radar echoes at a radar detector monitoring the scene, wherein each radar echo comprises radar echo information pertaining to a location of a moving object within the scene and a velocity of the moving object, evaluating the over time detected radar echoes for finding a stationary object exhibiting motion, and registering a background object as a presence of the stationary object exhibiting motion at a location, corresponding to the location of the stationary object evaluated as exhibiting motion, in the map of background objects; upon the location of the moving object not corresponding to a location of a background object in the map of background objects: indicating the moving object as pertaining to a true moving object.
A knitted band comprising: a body comprising an inner face, an opposite outer face, a top edge, and an opposite bottom edge, the inner face configured as to be oriented closer to a wearer's skin than the outer face when the knitted band encircles a portion of a wearer in an as-worn position; a structural zone (110, 120, 140) within the body; and a ventilation zone within the body, wherein both the structural zone and the ventilation zone are integrally knit by dropping different yarns into and out of a single knitting event that is used to form both the structural zone and the ventilation zone, and characterised in that a portion of the bottom edge gradually curves in a direction away from the top edge as the bottom edge extends from an anterior location toward a posterior location to form at least one flared section in the knitted band.
Mask for EUV lithography comprising: a substrate, a multi-layer coating applied to the substrate and a mask structure which is applied to the multi-layer coating and which has an absorber material, the mask structure having a maximum thickness of less than 100 nm, preferably not exceeding a maximum thickness of 30 nm, particularly preferably 20 nm, in particular 10 nm, characterized in that the multi-layer coating has an optical design which comprises a positionally-dependent variation of the thicknesses of the layers of the multi-layer coating which is dependent on a pitch (p) of the mask structure for improving the imaging of the mask in an EUV lithography system. a substrate, a multi-layer coating applied to the substrate and a mask structure which is applied to the multi-layer coating and which has an absorber material, the mask structure having a maximum thickness of less than 100 nm, preferably not exceeding a maximum thickness of 30 nm, particularly preferably 20 nm, in particular 10 nm, characterized in that the multi-layer coating has an optical design which comprises a positionally-dependent variation of the thicknesses of the layers of the multi-layer coating which is dependent on a pitch (p) of the mask structure for improving the imaging of the mask in an EUV lithography system.
An optical fiber fuse protection device (10, 10M, 20, 20M, 30, 30M, 40, 50) comprising: an upstream optical fiber disposed on an upstream side; a downstream optical fiber disposed on a downstream side, the downstream optical fiber being fusion-spliced to the upstream optical fiber and being made of a single optical fiber or a plurality of optical fibers fusion-spliced to each other; and a wall (Pa, Pb, Pc, Pd, Pe, WL, SW) interposed between a part of the upstream optical fiber and a part of the downstream optical fiber, characterized by the wall (Pa, Pb, Pc, Pd, Pe, WL, SW) being configured to suppress or reduce leaping of fire from the downstream optical fiber to the upstream optical fiber. an upstream optical fiber disposed on an upstream side; a downstream optical fiber disposed on a downstream side, the downstream optical fiber being fusion-spliced to the upstream optical fiber and being made of a single optical fiber or a plurality of optical fibers fusion-spliced to each other; and a wall (Pa, Pb, Pc, Pd, Pe, WL, SW) interposed between a part of the upstream optical fiber and a part of the downstream optical fiber, characterized by the wall (Pa, Pb, Pc, Pd, Pe, WL, SW) being configured to suppress or reduce leaping of fire from the downstream optical fiber to the upstream optical fiber.
A composition comprising from 30% to 100% by weight of a surfactant system which comprises: a) an alkoxylated glycerol ester represented by the formula; R 7 = H, or -CO-R 10 R 8 = H, or -CO-R 11 R 9 = H, or -CO-R 12 where each of R 1 to R 6 is independently a hydrogen or a methyl group; each of R 7 to R 9 is independently a hydrogen, or an acyl group in which R 10, R 11, and R 12 is independently a linear or branched, alkyl or alkenyl group having 1 to 30 carbon atoms; m, n, p, x, y, and z are each independently a number from 0 to 30; the sum of m, n, p, x, y, z being in the range of 1 to 90; and b) an alkyl sulfate; wherein the weight ratio of the alkoxylated glycerol ester to the alkyl sulfate is from 2.5:1 to 50:1. a) an alkoxylated glycerol ester represented by the formula; R 7 = H, or -CO-R 10 R 8 = H, or -CO-R 11 R 9 = H, or -CO-R 12 where each of R 1 to R 6 is independently a hydrogen or a methyl group; each of R 7 to R 9 is independently a hydrogen, or an acyl group in which R 10, R 11, and R 12 is independently a linear or branched, alkyl or alkenyl group having 1 to 30 carbon atoms; m, n, p, x, y, and z are each independently a number from 0 to 30; the sum of m, n, p, x, y, z being in the range of 1 to 90; and R 7 = H, or -CO-R 10 R 8 = H, or -CO-R 11 R 9 = H, or -CO-R 12 b) an alkyl sulfate;
A magnetic device comprising: a polarizing layer magnetized perpendicular to a free magnetic layer, wherein the polarizing layer comprises a Co/Ni multilayer or a Co/Pt multilayer that reduces the spin polarization of the polarizing layer; the free magnetic layer forming a first electrode and separated from the magnetized polarizing layer by a first non-magnetic metal layer, the free magnetic layer having a magnetization vector having at least a first stable state and a second stable state; a reference layer forming a second electrode and separated from the free-magnetic layer by a second non-magnetic layer, the reference layer having a fixed magnetization vector; wherein the magnetization vector of the free magnetic layer is set via application of a unipolar current pulse, having either positive or negative polarity and a selected amplitude and duration, through the magnetic device that bipolarly switches the magnetization vector from the first stable state to the second stable state or the second stable state to the first stable state, wherein the unipolar current pulse is orthogonal to the polarizing layer. a polarizing layer magnetized perpendicular to a free magnetic layer, wherein the polarizing layer comprises a Co/Ni multilayer or a Co/Pt multilayer that reduces the spin polarization of the polarizing layer; the free magnetic layer forming a first electrode and separated from the magnetized polarizing layer by a first non-magnetic metal layer, the free magnetic layer having a magnetization vector having at least a first stable state and a second stable state; a reference layer forming a second electrode and separated from the free-magnetic layer by a second non-magnetic layer, the reference layer having a fixed magnetization vector; wherein the magnetization vector of the free magnetic layer is set via application of a unipolar current pulse, having either positive or negative polarity and a selected amplitude and duration, through the magnetic device that bipolarly switches the magnetization vector from the first stable state to the second stable state or the second stable state to the first stable state, wherein the unipolar current pulse is orthogonal to the polarizing layer.
A cylinder valve comprising a body including a mounting end for attachment in the opening of a pressurized fluid cylinder, a internal withdrawing circuit comprising a first end located at the mounting end and a second end located at an outlet port located in the body, the withdrawing circuit comprising, an isolation valve and a regulating device for regulating selectively the flowrate and/or the pressure of the fluid flowing in the withdrawing circuit, the isolation valve and the regulating device being controlled by manual actuating organ(s) (16, 17) located on the body, the actuating organ(s) controlling the regulating device being mobile relative to the body between a first position setting a flow rate or a regulated pressure to defined minimum value and at least a second position setting a flow rate or a regulated pressure to a defined maximum value, characterized in that the cylinder valve comprises a return organ urging by default the actuating organ controlling the regulating device toward its first position, the return organ comprising a spring having a first end connected to the actuating organ controlling the regulating device and a second end connected to a fixed part of the body.