mhurhangee/patent-ind-claim-en huggingface dataset:
An atherectomy catheter device , the device comprising: an elongate body ; a hollow distal tip extending from a distal end of the elongate body configured to be aligned with the elongate body or angled relative to the elongate body; a drive shaft extending proximally to distally within the elongate body; a bushing coupled to the hollow distal tip, the bushing having a hinge point connected to one side of the elongate body, an inner flange positioned distal to the hinge point, a first channel therethrough and a second channel extending at an angle relative to and overlapping with the first channel; and a cutting and optical coherence tomography (OCT) imaging assembly coupled to the drive shaft, the cutting and imaging assembly having a distal cutting edge and a neck region that passes through the bushing, wherein the neck region sits within the first channel when the hollow distal tip is aligned with the elongate body and through the second channel when the hollow distal tip is angled relative to the elongate body, characterized in that the inner flange extends radially inwards and the neck region is tapered such that distal movement of the drive shaft within the bushing causes the radially extending inner flange to move along the tapered neck region of the cutting and imaging assembly, rotating the hollow distal tip and bushing about the hinge point and axially aligning the hollow distal tip with the elongate body to at least partially cover the distal cutting edge. an elongate body ; a hollow distal tip extending from a distal end of the elongate body configured to be aligned with the elongate body or angled relative to the elongate body; a drive shaft extending proximally to distally within the elongate body; a bushing coupled to the hollow distal tip, the bushing having a hinge point connected to one side of the elongate body, an inner flange positioned distal to the hinge point, a first channel therethrough and a second channel extending at an angle relative to and overlapping with the first channel; and a cutting and optical coherence tomography (OCT) imaging assembly coupled to the drive shaft, the cutting and imaging assembly having a distal cutting edge and a neck region that passes through the bushing, wherein the neck region sits within the first channel when the hollow distal tip is aligned with the elongate body and through the second channel when the hollow distal tip is angled relative to the elongate body, characterized in that the inner flange extends radially inwards and the neck region is tapered such that distal movement of the drive shaft within the bushing causes the radially extending inner flange to move along the tapered neck region of the cutting and imaging assembly, rotating the hollow distal tip and bushing about the hinge point and axially aligning the hollow distal tip with the elongate body to at least partially cover the distal cutting edge.
Loss test panel for determining the threshing loss of harvesters, which is intended to be placed on the ground and at least partially passed over by a combine harvester during threshing and which is used to collect the lost grain, as well as straw and chaff, wherein the loss test panel has transverse grooves on its upper side, as well as a collector arranged laterally on the loss test panel at one end of the transverse grooves , characterized in that the collector is formed by a tube rotatably arranged in corresponding receptacles of the loss test panel with one or more wall openings parallel to the tube axis arranged one behind the other in the axial direction of the tube for receiving the lost grain from the transverse grooves in the tube.
A magnetic resonance method comprising: applying a time-varying magnetic drive field to a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces, the time-varying magnetic drive field adapted to couple spin states of the spin ensemble with a cavity mode of a cavity, wherein the cavity mode corresponds to a cavity-resonance frequency ω c , the cavity-resonance frequency ω c is detuned from a spin-resonance frequency ω s of the spin ensemble by a detuning δω = ω c - ω s , the time-varying magnetic drive field generates Rabi oscillations at a Rabi frequency (Ω R ), and the difference between the detuning δω and the Rabi frequency (Ω R ) is small compared to the detuning δω ; and increasing polarization of the spin ensemble as a result of the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble. applying a time-varying magnetic drive field to a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces, the time-varying magnetic drive field adapted to couple spin states of the spin ensemble with a cavity mode of a cavity, wherein the cavity mode corresponds to a cavity-resonance frequency ω c , the cavity-resonance frequency ω c is detuned from a spin-resonance frequency ω s of the spin ensemble by a detuning δω = ω c - ω s , the time-varying magnetic drive field generates Rabi oscillations at a Rabi frequency (Ω R ), and the difference between the detuning δω and the Rabi frequency (Ω R ) is small compared to the detuning δω ; and increasing polarization of the spin ensemble as a result of the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble.
A composition, comprising: (A) from 10 wt% to 86 wt% of an ethylene component including at least one ethylene based polymer having an ethylene content of at least 50.0 wt%, based on the total weight of the ethylene based polymer, a melt index from 0.1 g/10 min to 100.0 g/10 min (ASTM D-1238 at 190°C, 2.16 kg), and a density from 0.935 g/cm 3 to 0.965 g/cm 3 ; (B) from 10 wt% to 86 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 200.0 g/10 min (ASTM D-1238 at 230°C, 2.16 kg); (C) from 2 wt% to 22 wt% of an octene component including at least one octene based polymer having an octene content of at least 80 wt%, based on the total weight of the octene based polymer; and (D) from 2 wt% to 20 wt% of a composite component including at least one specified block composite, derived from at least ethylene and an alpha-olefin that is one of a C 3-10 alpha-olefin, wherein: the specified block composite includes an ethylene based polymer having an ethylene content from 69 mol% and to 90 mol%, an alpha-olefin based polymer that is derived from at least the alpha-olefin, and a block copolymer comprising an ethylene block and an alpha-olefin block, the ethylene block of the block copolymer having the same composition as the ethylene based polymer in the block composite, and the alpha-olefin block of the block copolymer having the same composition as the alpha-olefin based polymer of the block composite. (A) from 10 wt% to 86 wt% of an ethylene component including at least one ethylene based polymer having an ethylene content of at least 50.0 wt%, based on the total weight of the ethylene based polymer, a melt index from 0.1 g/10 min to 100.0 g/10 min (ASTM D-1238 at 190°C, 2.16 kg), and a density from 0.935 g/cm 3 to 0.965 g/cm 3 ; (B) from 10 wt% to 86 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 200.0 g/10 min (ASTM D-1238 at 230°C, 2.16 kg); (C) from 2 wt% to 22 wt% of an octene component including at least one octene based polymer having an octene content of at least 80 wt%, based on the total weight of the octene based polymer; and (D) from 2 wt% to 20 wt% of a composite component including at least one specified block composite, derived from at least ethylene and an alpha-olefin that is one of a C 3-10 alpha-olefin, wherein: the specified block composite includes an ethylene based polymer having an ethylene content from 69 mol% and to 90 mol%, an alpha-olefin based polymer that is derived from at least the alpha-olefin, and a block copolymer comprising an ethylene block and an alpha-olefin block, the ethylene block of the block copolymer having the same composition as the ethylene based polymer in the block composite, and the alpha-olefin block of the block copolymer having the same composition as the alpha-olefin based polymer of the block composite.
A drug delivery device with a resettable dose setting mechanism said mechanism comprising a housing , a spindle , and a driver for driving the spindle of the drug delivery device, said driver comprising a first component and a second component rotationally coupled to said first component , wherein the first component is prevented from rotation with respect to the second component by a clutched connection to the second component , wherein the dose setting mechanism further comprises a biasing means which is adapted to cause the first component to engage with the second component , characterized in that during resetting of said drug delivery device, said first component is rotationally decoupled from said second component by an axial movement of the first component in an axial direction towards the second component , said axial movement compressing the biasing means , and that the spindle is operatively coupled to the first component by means of a thread . a housing , a spindle , and a driver for driving the spindle of the drug delivery device, said driver comprising a first component and a second component rotationally coupled to said first component , wherein the first component is prevented from rotation with respect to the second component by a clutched connection to the second component , wherein the dose setting mechanism further comprises a biasing means which is adapted to cause the first component to engage with the second component , characterized in that during resetting of said drug delivery device, said first component is rotationally decoupled from said second component by an axial movement of the first component in an axial direction towards the second component , said axial movement compressing the biasing means , and that the spindle is operatively coupled to the first component by means of a thread .
A personal care device comprising: a main body ; a main functional unit supported by the main body; an ancillary functional unit supported by the main body and comprising a treatment head ; and a coupling structure by means of which the ancillary functional unit is permanently connected to the main body, wherein the coupling structure: is configured to allow displacement of the ancillary functional unit relative to the main body from a non-operational position to an operational position; and comprises a biasing arrangement configured to exert a biasing force on the ancillary functional unit to displace the ancillary functional unit from the non-operational position towards the operational position and to hold the ancillary functional unit in the operational position, characterized in that the coupling structure further comprises a magnet arrangement configured to exert, in addition to the biasing force of the biasing arrangement , a magnetic holding force on the ancillary functional unit in the operational position of the ancillary functional unit, for retaining the ancillary functional unit in the operational position. a main body ; a main functional unit supported by the main body; an ancillary functional unit supported by the main body and comprising a treatment head ; and a coupling structure by means of which the ancillary functional unit is permanently connected to the main body, wherein the coupling structure: is configured to allow displacement of the ancillary functional unit relative to the main body from a non-operational position to an operational position; and comprises a biasing arrangement configured to exert a biasing force on the ancillary functional unit to displace the ancillary functional unit from the non-operational position towards the operational position and to hold the ancillary functional unit in the operational position, is configured to allow displacement of the ancillary functional unit relative to the main body from a non-operational position to an operational position; and comprises a biasing arrangement configured to exert a biasing force on the ancillary functional unit to displace the ancillary functional unit from the non-operational position towards the operational position and to hold the ancillary functional unit in the operational position, characterized in that the coupling structure further comprises a magnet arrangement configured to exert, in addition to the biasing force of the biasing arrangement , a magnetic holding force on the ancillary functional unit in the operational position of the ancillary functional unit, for retaining the ancillary functional unit in the operational position.
A turbine shroud coupled to a turbine casing of a turbine system , the turbine shroud comprising: a forward end including a first hook coupled to the turbine casing ; an aft end positioned opposite the forward end , the aft end including a second hook coupled to the turbine casing ; a base portion extending between the forward end and the aft end and positioned radially opposite the first hook and the second hook coupled to the turbine casing , the base portion including an inner surface facing a hot gas flow path for the turbine system ; a flange extending from the aft end and positioned radially between the base portion and the second hook ; a cooling passage positioned within the base portion , adjacent the inner surface ; and at least one aft end exhaust conduit in fluid communication with the cooling passage , the at least one aft end exhaust conduit extending through the aft end , radially between the base portion and the flange ; characterized in that , the at least one aft end exhaust conduit is angled radially outward from the cooling passage , toward the flange , such that a cooling fluid in the cooling passage is exhausted directly towards the flange from the aft end exhaust conduit . a forward end including a first hook coupled to the turbine casing ; an aft end positioned opposite the forward end , the aft end including a second hook coupled to the turbine casing ; a base portion extending between the forward end and the aft end and positioned radially opposite the first hook and the second hook coupled to the turbine casing , the base portion including an inner surface facing a hot gas flow path for the turbine system ; a flange extending from the aft end and positioned radially between the base portion and the second hook ; a cooling passage positioned within the base portion , adjacent the inner surface ; and at least one aft end exhaust conduit in fluid communication with the cooling passage , the at least one aft end exhaust conduit extending through the aft end , radially between the base portion and the flange ;
A yarn-forming element for an air-jet spinning machine for producing a yarn from a fiber strand by means of a swirling air flow, - the yarn-forming element comprising a spinning tip having an inlet opening for fibers of the fiber strand , - the yarn-forming element comprising a base body connected to the spinning tip , and - the yarn-forming element comprising a draw-off channel for a yarn produced in the region of the spinning tip and extending through the spinning tip and the base body and opening into an outlet through which the yarn produced in the region of the spinning tip can exit the yarn-forming element , wherein the spinning tip and the base body are connected to each other by means of at least one snap connection, wherein the spinning tip is retained on the base body by means of a sleeve , characterized in that , the snap connection holds the sleeve and thus the spinning tip on the base body . - the yarn-forming element comprising a spinning tip having an inlet opening for fibers of the fiber strand , - the yarn-forming element comprising a base body connected to the spinning tip , and - the yarn-forming element comprising a draw-off channel for a yarn produced in the region of the spinning tip and extending through the spinning tip and the base body and opening into an outlet through which the yarn produced in the region of the spinning tip can exit the yarn-forming element ,
Device for generating an atmospheric plasma beam for treating the surface of a workpiece, - having a tubular housing which has an axis (A), - having an inner electrode arranged within the housing - and having a nozzle arrangement , which has a nozzle opening , for discharging a plasma beam to be generated in the housing , - wherein the direction of the opening runs at an angle relative to the axis (A), and - wherein the nozzle arrangement is rotatable relatively about the axis (A), characterised - in that a shield surrounds the nozzle arrangement , and - in that the shield is provided for changing the intensity of the interaction of the plasma beam to be generated with the surface of the workpiece depending on the angle of rotation of the nozzle arrangement relative to the axis (A). - having a tubular housing which has an axis (A), - having an inner electrode arranged within the housing - and having a nozzle arrangement , which has a nozzle opening , for discharging a plasma beam to be generated in the housing , - wherein the direction of the opening runs at an angle relative to the axis (A), and - wherein the nozzle arrangement is rotatable relatively about the axis (A), characterised - in that a shield surrounds the nozzle arrangement , and - in that the shield is provided for changing the intensity of the interaction of the plasma beam to be generated with the surface of the workpiece depending on the angle of rotation of the nozzle arrangement relative to the axis (A).
Chiral metal complex compound of the formula wherein denotes either a broken bond (a) or a wedged bond (b) a) b) M is a metal selected from the manganese group or the iron group of the periodic system; PR 2 is wherein R 5 and R 6 independent of each other are C 1-4 -alkyl or aryl;; R 3 is CO, halogen or hydrogen and R 4 is CO, halogen or H-BH 3; and its stereoisomers in the form as a neutral complex or a complex cation with a suitable counter ion. a) b) M is a metal selected from the manganese group or the iron group of the periodic system; PR 2 is wherein R 5 and R 6 independent of each other are C 1-4 -alkyl or aryl;; R 3 is CO, halogen or hydrogen and R 4 is CO, halogen or H-BH 3;
A combination comprising a GLP-1 receptor agonist and a DPP-4 inhibitor which is linagliptin, A) for use in a method for reducing and maintaining body weight and/or body fat in an overweight or obesity patient with or without diabetes, particularly in a type 2 diabetes patient being obese or overweight, characterized by sequential use of the GLP-1 receptor agonist followed by the DPP-4 inhibitor; or B) for use in the treatment of type 2 diabetes, obesity or both, said treatment comprising the steps i) administering an effective amount of the GLP-1 receptor agonist to the patient, e.g. for inducing body weight loss and/or body fat loss, and ii) administering an effective amount of the DPP-4 inhibitor to the patient, e.g. for maintaining the reduced body weight and/or body fat, wherein the DPP-4 inhibitor treatment ii) is subsequent to the GLP-1 receptor agonist treatment i); or C) for sequential use of the GLP-1 receptor agonist followed by the DPP-4 inhibitor in preventing, slowing the progression of, delaying or treating a metabolic disorder or disease which is type 2 diabetes mellitus, overweight, and/or obesity. A) for use in a method for reducing and maintaining body weight and/or body fat in an overweight or obesity patient with or without diabetes, particularly in a type 2 diabetes patient being obese or overweight, characterized by sequential use of the GLP-1 receptor agonist followed by the DPP-4 inhibitor; or B) for use in the treatment of type 2 diabetes, obesity or both, said treatment comprising the steps i) administering an effective amount of the GLP-1 receptor agonist to the patient, e.g. for inducing body weight loss and/or body fat loss, and ii) administering an effective amount of the DPP-4 inhibitor to the patient, e.g. for maintaining the reduced body weight and/or body fat, wherein the DPP-4 inhibitor treatment ii) is subsequent to the GLP-1 receptor agonist treatment i); or i) administering an effective amount of the GLP-1 receptor agonist to the patient, e.g. for inducing body weight loss and/or body fat loss, and ii) administering an effective amount of the DPP-4 inhibitor to the patient, e.g. for maintaining the reduced body weight and/or body fat, C) for sequential use of the GLP-1 receptor agonist followed by the DPP-4 inhibitor in preventing, slowing the progression of, delaying or treating a metabolic disorder or disease which is type 2 diabetes mellitus, overweight, and/or obesity.
Power cable comprising: - a cable core , comprising at least one conductor , an insulating system thereof, and at least one metallic screen , - a jacket surrounding the cable core , comprising an inner jacket layer and an outer jacket layer , and - an outermost semiconducting layer surrounding the outer jacket layer and in direct contact thereto, characterized by further comprising a test semiconducting layer radially external to the inner jacket layer , and radially internal to the outer jacket layer and directly contacting them. - a cable core , comprising at least one conductor , an insulating system thereof, and at least one metallic screen , - a jacket surrounding the cable core , comprising an inner jacket layer and an outer jacket layer , and - an outermost semiconducting layer surrounding the outer jacket layer and in direct contact thereto,
A method of producing a flexible display tile , the method comprising, in sequence: - in a first step, providing a plurality of luminous sources and electronic components on a flexible substrate; - followed by, in a second step, arranging each one of a plurality of elongate enclosures around one or more of said luminous sources and electronic components with their longest side aligned in a common direction of the flexible display tile ; and - followed by, in a third step, filling said enclosures with a potting material. - in a first step, providing a plurality of luminous sources and electronic components on a flexible substrate; - followed by, in a second step, arranging each one of a plurality of elongate enclosures around one or more of said luminous sources and electronic components with their longest side aligned in a common direction of the flexible display tile ; and - followed by, in a third step, filling said enclosures with a potting material.
Catalyst apparatus for reducing pollutants in an offgas , comprising at least one layer of a deNOx catalyst for decreasing nitrogen oxides and at least one layer of an oxidation catalyst for decreasing carbon monoxide located downstream of the deNOx catalyst , wherein the at least one layer of the deNOx catalyst and the at least one layer of the downstream oxidation catalyst each have a multiplicity of flow channels , characterized in that the length (l 4 ) of the at least one layer of the oxidation catalyst is smaller than the length (l 3 ) of a directly preceding layer of the deNOx catalyst and the at least one layer of the oxidation catalyst has a greater number of flow channels than the first layer of the deNOx catalyst .