mhurhangee/patent-ind-claim-en huggingface dataset:
A system for assessing the severity of a stenosis in a vessel without administration of a hyperemic agent, the system comprising a first instrument , a second instrument and a processing unit , the first and second instruments being sized and shaped for introduction into the vessel of the patient, the processing unit being in communication with the first and second instruments, and the processing unit being configured to: obtain distal pressure measurements for a cardiac cycle of the patient from the first instrument while the first instrument is positioned within the vessel at a position distal of the stenosis; obtain proximal pressure measurements for the cardiac cycle of the patient from a second instrument while the second instrument is positioned within the vessel at a position proximal of the stenosis; select a diagnostic window within the cardiac cycle of the patient, wherein the diagnostic window encompasses only a portion of the cardiac cycle of the patient and wherein the diagnostic window is selected by identifying a portion of the cardiac cycle corresponding to the time period in which the change in velocity fluctuates around zero; and calculate a pressure ratio between the distal pressure measurements obtained during the diagnostic window and the proximal pressure measurements obtained during the diagnostic window to thereby assess the severity of the stenosis. obtain distal pressure measurements for a cardiac cycle of the patient from the first instrument while the first instrument is positioned within the vessel at a position distal of the stenosis; obtain proximal pressure measurements for the cardiac cycle of the patient from a second instrument while the second instrument is positioned within the vessel at a position proximal of the stenosis; select a diagnostic window within the cardiac cycle of the patient, wherein the diagnostic window encompasses only a portion of the cardiac cycle of the patient and wherein the diagnostic window is selected by identifying a portion of the cardiac cycle corresponding to the time period in which the change in velocity fluctuates around zero; and calculate a pressure ratio between the distal pressure measurements obtained during the diagnostic window and the proximal pressure measurements obtained during the diagnostic window to thereby assess the severity of the stenosis.
A method for a centralized unit, CU, of a radio access network, RAN, node that is associated with one or more transmission reception points, TRPs, the method comprising: receiving , from a positioning node associated with the RAN, a first positioning reference signal, PRS, activity report that includes information about PRS transmitted by TRPs associated with one or more distributed units, DUs, of the RAN node; associating the information in the first PRS activity report with respective DUs of the RAN node; and sending , to the DUs, respective second PRS activity reports that include the information associated with the respective DUs, such that the second PRS activity reports will have DU-specific subsets of the information in the first PRS activity report. receiving , from a positioning node associated with the RAN, a first positioning reference signal, PRS, activity report that includes information about PRS transmitted by TRPs associated with one or more distributed units, DUs, of the RAN node; associating the information in the first PRS activity report with respective DUs of the RAN node; and sending , to the DUs, respective second PRS activity reports that include the information associated with the respective DUs, such that the second PRS activity reports will have DU-specific subsets of the information in the first PRS activity report.
An apparatus for wavelength selective transfer of optical energy, comprising: a first signal waveguide ; a second signal waveguide located a distance from said first signal waveguide ; and a bridge comprising at least one waveguiding element between said first signal waveguide and said second signal waveguide, characterised in that said bridge comprises a series of graded index, GRIN, rods between said first signal waveguide and said second signal waveguide , wherein said series acts as a resonant bridge between said first signal waveguide and said second signal waveguide ; wherein each said graded index, GRIN, rod supports at least two modes; and wherein the effective index of the fundamental mode in said first signal waveguide matches one of said two modes; wherein each said graded index, GRIN, rod comprises a higher dispersion than that of said first signal waveguide and said second signal waveguide such that there is sufficient differentiation of net coupling between said first signal waveguide and said second signal waveguide ; and wherein the spacing between each graded index, GRIN, rod and between the series of GRIN rods and said first signal waveguide and said second signal waveguide are selected to produce a desired coupling efficiency and length at which maximum coupling occurs. a first signal waveguide ; a second signal waveguide located a distance from said first signal waveguide ; and a bridge comprising at least one waveguiding element between said first signal waveguide and said second signal waveguide, characterised in that said bridge comprises a series of graded index, GRIN, rods between said first signal waveguide and said second signal waveguide , wherein said series acts as a resonant bridge between said first signal waveguide and said second signal waveguide ; wherein each said graded index, GRIN, rod supports at least two modes; and wherein the effective index of the fundamental mode in said first signal waveguide matches one of said two modes; wherein each said graded index, GRIN, rod comprises a higher dispersion than that of said first signal waveguide and said second signal waveguide such that there is sufficient differentiation of net coupling between said first signal waveguide and said second signal waveguide ; and wherein the spacing between each graded index, GRIN, rod and between the series of GRIN rods and said first signal waveguide and said second signal waveguide are selected to produce a desired coupling efficiency and length at which maximum coupling occurs.
A mobile terminal comprising: a front case accommodating a display on a front surface and having a receiver for outputting a sound; a rear case coupled to one side of the front case ; a rear cover covering a rear portion of the rear case to form an appearance and having an air vent hole allowing air to flow in and out to maintain predetermined pressure; and a circuit board installed between the front case and the rear case , wherein an air flow port is formed on an inner side surface of the rear cover and protrudes from the rear cover toward a rear portion of the front case to guide movement of air formed by an external force acting on the rear cover , and characterised in that a plurality of protrusions are formed on an inner surface portion of the air flow port to increase a frictional force with moving air. a front case accommodating a display on a front surface and having a receiver for outputting a sound; a rear case coupled to one side of the front case ; a rear cover covering a rear portion of the rear case to form an appearance and having an air vent hole allowing air to flow in and out to maintain predetermined pressure; and a circuit board installed between the front case and the rear case , wherein an air flow port is formed on an inner side surface of the rear cover and protrudes from the rear cover toward a rear portion of the front case to guide movement of air formed by an external force acting on the rear cover , and characterised in that a plurality of protrusions are formed on an inner surface portion of the air flow port to increase a frictional force with moving air.
A compound of general formula 1, wherein X is independently selected from group consisting of: wherein R 1 is independently selected from group consisting of: wherein R 2 is independently selected from group consisting of: and wherein is independently selected from groups referred to as hydrogen, -OH and -OCH 3 groups. X is independently selected from group consisting of: wherein R 1 is independently selected from group consisting of: wherein R 2 is independently selected from group consisting of: and wherein is independently selected from groups referred to as hydrogen, -OH and -OCH 3 groups.
A method for applying stones to metallic elements, particularly for the adhesive bonding of glass crystals to surfaces of tubular elements, comprising the steps of preparing an application surface of a metallic element , spreading an adhesive medium on said application surface and making a single lateral face of a first stone to be applied adhere to said application surface , the axis of symmetry of said first stone defining a first angle of intersection with said application surface , said stones are positioned in succession, characterized in that said succession of stones consists in positioning a second stone , which defines a second angle of intersection by means of the respective axis of symmetry , next to said first stone , said second intersection angle being a reversed angle with respect to said first intersection angle about a vertical direction , which is normal with respect to said application surface , said stones are positioned one next to the other on said application surface , laid on said lateral face , substantially forming a single body.
A device for assisting the realignment of the pelvis comprising a pair of arms including an upper arm and a lower arm connected together at one end of each arm by a connection member allowing relative rotation of the two arms in a plane passing through the longitudinal axes of both arms and also about an axis at right angle to said lower arm and passing through the connected ends of the arms, where in the two arms are connected together by said connection member with the upper arm being positionable adjacent to and superimposed on the lower arm .
A method of preparing a cutting path for machine cutting of a plurality of parts from a sheet material using beam cutting technology, wherein each one of the plurality of parts is formed by one of a plurality of two dimensional free form shapes, comprising at least a first shape, and wherein a cutting beam of the machine has an influential zone that extends on both sides of the cutting beam during cutting, the method characterized by : - identifying that at least one segment of the at least one first shape risks to generate interference of the influential zone of the cutting path that produces a negative effect on the cut parts, when positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts, wherein the identifying of at least one segment involves identifying interference of the influential zone of the cutting path, - modifying the segment of the at least one first shape to provide a modified first shape, comprising a modified segment, configured such that the modified segment allows a part of the modified first shape to be positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts whenever the shape of the parts allows it, wherein the modifying of the segment of the at least one first shape to provide a modified first shape involves modifying the segment such that interference of the influential zone is decreased. - identifying that at least one segment of the at least one first shape risks to generate interference of the influential zone of the cutting path that produces a negative effect on the cut parts, when positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts, wherein the identifying of at least one segment involves identifying interference of the influential zone of the cutting path, - modifying the segment of the at least one first shape to provide a modified first shape, comprising a modified segment, configured such that the modified segment allows a part of the modified first shape to be positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts whenever the shape of the parts allows it, wherein the modifying of the segment of the at least one first shape to provide a modified first shape involves modifying the segment such that interference of the influential zone is decreased.
A process for isolating S-isomer crystals of Indoxacarb having purity in the range of 98% to 99%, said process comprising the following steps: a) mixing crude Indoxacarb with a solvent to obtain a slurry, wherein the crude Indoxacarb comprises impurities in an amount in the range of 3 wt.% to 15 wt.%; b) heating said slurry to a temperature in the range of 64 °C to 80 °C to obtain a heated slurry; c) cooling said heated slurry to a temperature in the range of 40 °C to 51 °C to allow complete crystallization of racemic Indoxacarb and obtain a warm slurry comprising crystals of the racemic Indoxacarb; d) filtering said warm slurry at a temperature in the range of 40 °C to 51 °C to isolate a mass comprising racemic Indoxacarb crystals and obtain a filtrate; e) cooling said filtrate to a temperature in the range of 9 °C to 16 °C to initiate crystallization followed by equilibrating under stirring for a time period in the range of 3 hours to 7 hours to allow complete crystallization to obtain a mixture comprising S-isomer crystals of Indoxacarb; f) filtering said mixture to isolate said S-isomer crystals of Indoxacarb; and g) washing and drying said crystals to obtain S-isomer crystals of Indoxacarb having purity in the range of 98% to 99%. a) mixing crude Indoxacarb with a solvent to obtain a slurry, wherein the crude Indoxacarb comprises impurities in an amount in the range of 3 wt.% to 15 wt.%; b) heating said slurry to a temperature in the range of 64 °C to 80 °C to obtain a heated slurry; c) cooling said heated slurry to a temperature in the range of 40 °C to 51 °C to allow complete crystallization of racemic Indoxacarb and obtain a warm slurry comprising crystals of the racemic Indoxacarb; d) filtering said warm slurry at a temperature in the range of 40 °C to 51 °C to isolate a mass comprising racemic Indoxacarb crystals and obtain a filtrate; e) cooling said filtrate to a temperature in the range of 9 °C to 16 °C to initiate crystallization followed by equilibrating under stirring for a time period in the range of 3 hours to 7 hours to allow complete crystallization to obtain a mixture comprising S-isomer crystals of Indoxacarb; f) filtering said mixture to isolate said S-isomer crystals of Indoxacarb; and g) washing and drying said crystals to obtain S-isomer crystals of Indoxacarb having purity in the range of 98% to 99%.
Water electrolysis device , comprising: - a membrane-electrode assembly , comprising a proton-exchange membrane and an anode active layer that includes an electrocatalytic material and is positioned on one face of said proton-exchange membrane ; - a water inlet collector ; - an oxygen outlet collector , a straight line (X) connecting the water inlet collector to the oxygen outlet collector extending along a general flow direction; - an anode facing the anode active layer , having one end in communication with the water inlet collector and another end in communication with the oxygen outlet collector ; - characterized in that : - in a section along a normal to said straight line (X), the anode has points (A, B) that each have a combined distance with the water inlet collector and with the oxygen outlet collector , the combined distance for a first point (A) at the periphery of the anode being at least 10% greater than the combined distance of a second point (B) positioned on said straight line (X); - the surface loading of the anode active layer with electrocatalytic material at the first point being at least 10% greater than the surface loading thereof at the second point. - a membrane-electrode assembly , comprising a proton-exchange membrane and an anode active layer that includes an electrocatalytic material and is positioned on one face of said proton-exchange membrane ; - a water inlet collector ; - an oxygen outlet collector , a straight line (X) connecting the water inlet collector to the oxygen outlet collector extending along a general flow direction; - an anode facing the anode active layer , having one end in communication with the water inlet collector and another end in communication with the oxygen outlet collector ; - characterized in that : - in a section along a normal to said straight line (X), the anode has points (A, B) that each have a combined distance with the water inlet collector and with the oxygen outlet collector , the combined distance for a first point (A) at the periphery of the anode being at least 10% greater than the combined distance of a second point (B) positioned on said straight line (X); - the surface loading of the anode active layer with electrocatalytic material at the first point being at least 10% greater than the surface loading thereof at the second point.
An exercise apparatus , comprising: a stationary frame comprising a base portion , an upright portion , and an overhead portion ; an assist bar pivotally mounted on the upright portion of the stationary frame below the overhead portion and configured for assisting a user during performance of exercises on the apparatus, the assist bar having a foot engaging portion configured for engagement by the user; and an adjustable overhead handle assembly secured to the overhead portion of the stationary frame and comprising at least one handle pair, characterised in that the at least one handle pair comprises a pair of adjustable handles , wherein each of the adjustable handles has a pivot portion rotatably mounted on a respective pivot mount and a hand grip extending from the pivot portion at a predetermined angle to a respective pivot axis , wherein each hand grip is substantially horizontal and angled towards the rear end of the stationary frame in a first end position, wherein each hand grip extends in a forward direction relative to the stationary frame in a second end position, wherein the first position comprises a chin-up position in which each of the adjustable handles are oriented for gripping by a user while performing a chin-up exercise and the second position comprises a pull-up position in which each of the adjustable handles are oriented for gripping by a user while performing a pull-up exercise. a stationary frame comprising a base portion , an upright portion , and an overhead portion ; an assist bar pivotally mounted on the upright portion of the stationary frame below the overhead portion and configured for assisting a user during performance of exercises on the apparatus, the assist bar having a foot engaging portion configured for engagement by the user; and an adjustable overhead handle assembly secured to the overhead portion of the stationary frame and comprising at least one handle pair, characterised in that the at least one handle pair comprises a pair of adjustable handles , wherein each of the adjustable handles has a pivot portion rotatably mounted on a respective pivot mount and a hand grip extending from the pivot portion at a predetermined angle to a respective pivot axis , wherein each hand grip is substantially horizontal and angled towards the rear end of the stationary frame in a first end position, wherein each hand grip extends in a forward direction relative to the stationary frame in a second end position, wherein the first position comprises a chin-up position in which each of the adjustable handles are oriented for gripping by a user while performing a chin-up exercise and the second position comprises a pull-up position in which each of the adjustable handles are oriented for gripping by a user while performing a pull-up exercise.
A rosette device of a handle set that comprises a handle part for a door or a window, comprising a substructure part which can be mounted against a door leaf or window sash and into which a neck of the handle part engages when mounted, and preferably comprising a cover rosette which covers the substructure part , and comprising a return spring mechanism that is accommodated inside the substructure part , applies force and returns the handle part to an initial, non-actuated position, a rotary coupling part , which is different from a square rod for actuating a lock bolt, being provided inside the substructure part to transmit the rotational position of the handle part to an actuator of the return spring mechanism , the actuator of the return spring mechanism being formed by a leaf spring part which can be inserted into the substructure part and is supported against the rotary coupling part on the inside under spring preload by a first supporting portion and is directly or indirectly supported against the substructure part by means of a second support portion or is supported against the cover rosette through the substructure part , characterized in that the leaf spring part has strip-shaped portions arranged to form a honeycomb, and in that the strip-shaped portions arranged to form a honeycomb form parallelogram-shaped and/or diamond-shaped and/or rounded, in particular circular , and/or elongate honeycombs in the leaf spring part , and in that the actuator of the return spring mechanism comprises two such leaf spring parts , which are arranged on opposite sides of the rotary coupling part , specifically arranged above or below the rotary coupling part in the installed state, and in that the relevant leaf spring part can be clipped into the substructure part when the rotary coupling part is arranged on the neck of the handle part extending into the substructure part in the proper assembled state, whereby the leaf spring part is compressed in parallel with a plane in which the substructure part is mounted on the door leaf or window sash and is then inserted into the substructure part and released.