mhurhangee/patent-ind-claim-en huggingface dataset:
A snap-fit connection arrangement comprising a groove strip having a first attachment region extending along the groove for placement of the groove along a first component , the groove strip extending in a first longitudinal direction transversely to the cross section of the groove strip, and further comprising a tongue strip having a second attachment region extending along the tongue for placement of the tongue along a second component , the tongue strip extending in a second longitudinal direction transversely to the cross section of the tongue strip, the cross-sectional contours of the tongue and the groove being configured to correspond to each other through the use of latching elements so that a snap-fit connection can be established between the tongue and the groove as the tongue is inserted in a joining direction (A) into the groove , the snap-fit connection allowing for relative movement between the tongue strip and the groove strip along one of the longitudinal directions and preventing relative movement between the tongue strip and the groove strip transversely to any of the longitudinal directions, and wherein the two attachment regions lie in a common plane or in two different planes that intersect each other, characterized in that the tongue includes a latching recess that extends along and within the tongue , the latching recess comprising an undercut and the latching recess is intended for latching engagement with the rib of a rib strip .
A cut-out tool for cutting out an opening into a housing wall , comprising: a cut-out device arranged on an end-face section of the cut-out tool , characterized by a thread for screwing the cut-out tool into a threaded connecting piece in or at a housing wall in order to introduce an opening into a housing wall . a cut-out device arranged on an end-face section of the cut-out tool , characterized by a thread for screwing the cut-out tool into a threaded connecting piece in or at a housing wall in order to introduce an opening into a housing wall .
A pressure sensing apparatus comprising: an inflatable bladder having a cavity comprising a fluid; and a pressure sensing device comprising: a housing comprising a recess and configured to be welded in a seam of the inflatable bladder , the housing being hermetically sealed within the seam of the inflatable bladder , a pressure sensor located within the recess , the pressure sensor having a sensing side configured to be exposed to the cavity of the inflatable bladder and a reference side configured to be exposed to ambient air, and a printed circuit board located within the recess and coupled to the pressure sensor , wherein the pressure sensor is operable to detect a pressure change within the cavity due to a force exerted by a subject on the inflatable bladder . an inflatable bladder having a cavity comprising a fluid; and a pressure sensing device comprising: a housing comprising a recess and configured to be welded in a seam of the inflatable bladder , the housing being hermetically sealed within the seam of the inflatable bladder , a pressure sensor located within the recess , the pressure sensor having a sensing side configured to be exposed to the cavity of the inflatable bladder and a reference side configured to be exposed to ambient air, and a printed circuit board located within the recess and coupled to the pressure sensor , wherein the pressure sensor is operable to detect a pressure change within the cavity due to a force exerted by a subject on the inflatable bladder . a housing comprising a recess and configured to be welded in a seam of the inflatable bladder , the housing being hermetically sealed within the seam of the inflatable bladder , a pressure sensor located within the recess , the pressure sensor having a sensing side configured to be exposed to the cavity of the inflatable bladder and a reference side configured to be exposed to ambient air, and a printed circuit board located within the recess and coupled to the pressure sensor , wherein the pressure sensor is operable to detect a pressure change within the cavity due to a force exerted by a subject on the inflatable bladder .
A double pump with two centrifugal pumps each with impellers arranged therein for conveying a fluid and an intake manifold , branching into two individual manifolds , for drawing in the fluid, which individual manifolds are connected to a respective suction region of the impellers , wherein a flow guidance element is provided in each individual manifold at a distance from the respective impeller , which flow guidance element divides the fluid flowing into the individual manifolds into two partial streams and, in its height, extends in a tapering manner towards the impeller in the flow direction of the fluid, and the flow guidance element is divided into two in such a way that the first part facing the inflowing fluid bears on both sides at its longitudinal edges extending in the flow direction of the fluid against an inner wall of the individual manifold and the second part facing the impeller bears at an edge extending in the flow direction of the fluid against the individual manifold and tapers at its opposite edge in its height towards the impeller . a flow guidance element is provided in each individual manifold at a distance from the respective impeller , which flow guidance element divides the fluid flowing into the individual manifolds into two partial streams and, in its height, extends in a tapering manner towards the impeller in the flow direction of the fluid, and the flow guidance element is divided into two in such a way that the first part facing the inflowing fluid bears on both sides at its longitudinal edges extending in the flow direction of the fluid against an inner wall of the individual manifold and the second part facing the impeller bears at an edge extending in the flow direction of the fluid against the individual manifold and tapers at its opposite edge in its height towards the impeller .
A method for location determination, the method comprising: receiving, by an antenna mounted on a moving platform , a plurality of signals transmitted from a plurality of emitters ; identifying a signal of interest, SOI, from the signals , whereby the signal of interest comprises a coherent pulse train; splitting the SOI into a plurality of look segments ; determining frequency of arrival, FOA, measurements from the look segments; and determining a location of the emitter , from the plurality of emitters , that transmitted the SOI by using the FOA measurements; wherein the determining of the FOA measurements comprises: downconverting each of the look segments to generate downconverted look segments; coherently demodulating each of the downconverted look segments to generate demodulated look segments; obtaining pulse-to-pulse phase measurements from each of the demodulated look segments; unwrapping the pulse-to-pulse phase measurements to generate unwrapped pulse train phase advances ; performing linear regression and scaling to determine a slope of each of the unwrapped pulse train phase advances ; and determining the FOA measurements from the slope of each of the unwrapped pulse train phase advances . receiving, by an antenna mounted on a moving platform , a plurality of signals transmitted from a plurality of emitters ; identifying a signal of interest, SOI, from the signals , whereby the signal of interest comprises a coherent pulse train; splitting the SOI into a plurality of look segments ; determining frequency of arrival, FOA, measurements from the look segments; and determining a location of the emitter , from the plurality of emitters , that transmitted the SOI by using the FOA measurements; wherein the determining of the FOA measurements comprises: downconverting each of the look segments to generate downconverted look segments; coherently demodulating each of the downconverted look segments to generate demodulated look segments; obtaining pulse-to-pulse phase measurements from each of the demodulated look segments; unwrapping the pulse-to-pulse phase measurements to generate unwrapped pulse train phase advances ; performing linear regression and scaling to determine a slope of each of the unwrapped pulse train phase advances ; and determining the FOA measurements from the slope of each of the unwrapped pulse train phase advances . downconverting each of the look segments to generate downconverted look segments; coherently demodulating each of the downconverted look segments to generate demodulated look segments; obtaining pulse-to-pulse phase measurements from each of the demodulated look segments; unwrapping the pulse-to-pulse phase measurements to generate unwrapped pulse train phase advances ; performing linear regression and scaling to determine a slope of each of the unwrapped pulse train phase advances ; and determining the FOA measurements from the slope of each of the unwrapped pulse train phase advances .
A straddle-type vehicle comprising: an engine including a crankcase in which a crankshaft is accommodated; and an oil pan configured to store oil and provided at a lower portion of the engine an exhaust device , configured to guide exhaust gas from an exhaust pipe in front of the engine to a muffler in a rear of the engine , the exhaust device including: a catalyst case in which a catalyst configured to purify the exhaust gas that passes through the exhaust pipe is accommodated; and a chamber in which a muffling chamber configured to reduce an exhaust noise is formed downstream of the catalyst case , wherein the catalyst case is disposed in a range from a front space of the engine to a front part of a lower space of the engine , and the chamber is disposed so as to occupy at least a rear part of the lower space of the engine , characterized in that the catalyst case extends obliquely rearward from one side toward another side in an engine width direction, intersects a center line (C2) of the engine extending in a front-rear direction in a bottom view, crosses a front of a deep bottom portion of the oil pan and overlaps the deep bottom portion of the oil pan in a front view. an engine including a crankcase in which a crankshaft is accommodated; and an oil pan configured to store oil and provided at a lower portion of the engine an exhaust device , configured to guide exhaust gas from an exhaust pipe in front of the engine to a muffler in a rear of the engine , the exhaust device including: a catalyst case in which a catalyst configured to purify the exhaust gas that passes through the exhaust pipe is accommodated; and a chamber in which a muffling chamber configured to reduce an exhaust noise is formed downstream of the catalyst case , wherein a catalyst case in which a catalyst configured to purify the exhaust gas that passes through the exhaust pipe is accommodated; and a chamber in which a muffling chamber configured to reduce an exhaust noise is formed downstream of the catalyst case , wherein the catalyst case is disposed in a range from a front space of the engine to a front part of a lower space of the engine , and the chamber is disposed so as to occupy at least a rear part of the lower space of the engine , characterized in that the catalyst case extends obliquely rearward from one side toward another side in an engine width direction, intersects a center line (C2) of the engine extending in a front-rear direction in a bottom view, crosses a front of a deep bottom portion of the oil pan and overlaps the deep bottom portion of the oil pan in a front view.
An implantable tissue retractor for treatment of a breathing disorder, the implantable tissue retractor comprising: a shaft sized for insertion into a soft tissue located in a patient's oral cavity or pharynx; and a retractor member at or near a first end of the shaft , at least one of a portion of the shaft or the retractor member positionable on a surface of the soft tissue; and characterized in that the implantable tissue retractor is provided with an anchor member configured to be connected to the shaft , and a position of the anchor member along the shaft is adjustable to change the length of the shaft that extends between the retractor member and the anchor member in order to vary the force applied to the soft tissue to prevent a deformation of at least a portion of the soft tissue to prevent obstruction of the patient's airway. a shaft sized for insertion into a soft tissue located in a patient's oral cavity or pharynx; and a retractor member at or near a first end of the shaft , at least one of a portion of the shaft or the retractor member positionable on a surface of the soft tissue; and characterized in that the implantable tissue retractor is provided with an anchor member configured to be connected to the shaft , and a position of the anchor member along the shaft is adjustable to change the length of the shaft that extends between the retractor member and the anchor member in order to vary the force applied to the soft tissue to prevent a deformation of at least a portion of the soft tissue to prevent obstruction of the patient's airway.
Electrical switching device with a connection section for fastening and contacting an electrical conductor , wherein a fastening element for fastening said electrical conductor and an electrically conductive contacting element , said contacting element reaching from said fastening element to a contact point of a current-carrying element , said current-carrying element being spaced from said fastening element and extending in an inner section of said electrical switching device , are present on said connection section , wherein said fastening element exhibits a greater strength than said contacting element , and wherein said contacting element is electrically conductive.
A bracing device for securing a lining frame (F) to a structure (C) to be lined, said device comprising a main portion extending in a direction referred to as the axial direction (X1), one end of which portion is provided with means for securing it to the structure (C) to be lined, and the other end of which is provided with means for attachment to at least one membrane (M), characterized in that said attachment means comprise a first jaw surrounding the main portion and a second jaw supported by the first jaw, coupling means allowing said jaws to be axially clamped together by rotation of the second jaw with respect to the first jaw, said two jaws being arranged so as to pinch therebetween, after assembly, the membrane, said membrane remaining integrated after assembly.
A batch of shaped abrasive particles comprising shaped abrasive particles comprising: a body comprising a two-dimensional shape selected from the group consisting of triangular, quadrilateral, rectangular, trapezoidal, pentagonal, hexagonal, heptagonal, octagonal, and a combination thereof, the body including: an upper surface, a bottom major surface opposite the upper surface, a first side surface extending between the bottom major surface and the upper surface, and a second side surface extending between the bottom major surface and the upper surface wherein the side surfaces comprise an innermost point and an outermost point ; a percent flashing (f) for a total side area of the body; and a width (w) and a height (hi), the width being the longest dimension of the body and extending along a side, wherein the height (hi) is an interior height of the body, wherein the interior height is the smallest height between the bottom major surface and the upper surface within the interior of the body wherein a median interior height of the batch is at least about 33% of a median width of the shaped abrasive particles of the batch, wherein a median percent flashing of the batch is at least about 16% and not greater than about 45%. a body comprising a two-dimensional shape selected from the group consisting of triangular, quadrilateral, rectangular, trapezoidal, pentagonal, hexagonal, heptagonal, octagonal, and a combination thereof, the body including: an upper surface, a bottom major surface opposite the upper surface, a first side surface extending between the bottom major surface and the upper surface, and a second side surface extending between the bottom major surface and the upper surface wherein the side surfaces comprise an innermost point and an outermost point ; a percent flashing (f) for a total side area of the body; and a width (w) and a height (hi), the width being the longest dimension of the body and extending along a side, wherein the height (hi) is an interior height of the body, wherein the interior height is the smallest height between the bottom major surface and the upper surface within the interior of the body wherein a median interior height of the batch is at least about 33% of a median width of the shaped abrasive particles of the batch, wherein a median percent flashing of the batch is at least about 16% and not greater than about 45%.
A method for producing a sliding bearing bush according to which a flat supporting metal layer is provided, a sliding layer is arranged on this supporting metal layer to produce a flat composite material, and the flat composite material is then rolled into the shape of the sliding bearing bush , wherein the flat composite material is rolled in such a way that the supporting metal layer in the sliding bearing bush is arranged radially underneath the sliding layer , characterized in that for connecting the ends which are open after rolling, the two abutting end faces are welded to one another in the axial direction forming a weld seam running in the axial direction, that, furthermore, an oil groove running in the axial direction is formed at a distance from the weld seam , wherein the distance amounts to between 0.5% and 10% of the outer circumference of the running surface of the sliding layer - as viewed in the axial direction -, wherein a lubricant supply line opens into the oil groove , for which purpose a corresponding bore is formed in the supporting metal layer and optionally in the sliding layer .
A display system comprising: an inertial measuring system, IMS, configured to sense dynamics of an aircraft ; a video camera configured to image an external scene outside the aircraft; a video display system inside the aircraft ; an image processing sub-system comprising a video processor , the image processing sub-system configured to access an electronic model of the aircraft and compare the dynamics sensed by the IMS to the electronic model to generate a predicted movement of the aircraft , estimate a lag between a scene representing an image to be displayed if there were no lag and the external scene imaged by the video camera based on the predicted movement , and generate video signals that are pre-compensated for the lag to drive the video processor to display on the video display system a lag compensated video image of the external scene , the system further comprising a plurality of video cameras configured to image the external scene and a plurality of video processors and a plurality of video display systems , wherein the electronic model comprises responses of groups of seats within the aircraft to the dynamics of the aircraft , and wherein each group of seats is associated with an at least one video processor and an at least one video display system , the at least one video processor and the at least one video display system associated with each group of seats in communication with each other. an inertial measuring system, IMS, configured to sense dynamics of an aircraft ; a video camera configured to image an external scene outside the aircraft; a video display system inside the aircraft ; an image processing sub-system comprising a video processor , the image processing sub-system configured to access an electronic model of the aircraft and compare the dynamics sensed by the IMS to the electronic model to generate a predicted movement of the aircraft , estimate a lag between a scene representing an image to be displayed if there were no lag and the external scene imaged by the video camera based on the predicted movement , and generate video signals that are pre-compensated for the lag to drive the video processor to display on the video display system a lag compensated video image of the external scene , the system further comprising a plurality of video cameras configured to image the external scene and a plurality of video processors and a plurality of video display systems , wherein the electronic model comprises responses of groups of seats within the aircraft to the dynamics of the aircraft , and wherein each group of seats is associated with an at least one video processor and an at least one video display system , the at least one video processor and the at least one video display system associated with each group of seats in communication with each other.
A manufacturing method of a blade material by sequentially hot-forging the material from a root side to a blade tip with a mold, wherein : - when the material to be forged is grasped in a portion on the root side and the material to be forged is restrained by the mold, a locally forged area between the grasped portion and the restrained portion is subjected to twisting processing, - the area previously subjected to hot-forging processing and the area subsequently subjected to hot-forging processing partially overlap with each other, - the material to be forged grasped by the manipulator is forged while being pulled out from the heating furnace by the manipulator. - when the material to be forged is grasped in a portion on the root side and the material to be forged is restrained by the mold, a locally forged area between the grasped portion and the restrained portion is subjected to twisting processing, - the area previously subjected to hot-forging processing and the area subsequently subjected to hot-forging processing partially overlap with each other, - the material to be forged grasped by the manipulator is forged while being pulled out from the heating furnace by the manipulator.
An air conditioner comprising: a housing including an outlet and a discharge plate having a plurality of holes formed adjacent to the outlet; a heat exchanger disposed inside the housing; a blower fan configured to blow air heat-exchanged by the heat exchanger; a discharge blade configured to be movable between a guide position at which the outlet is open and the air blown from the blower fan is guided, and a closed position at which the outlet is closed; and characterised by a flow path blade configured to be movable between a closed position at which the flow path blade is configured to block an air flow from the blower fan to the discharge plate , and an open position at which the air flow from the blower fan to the discharge plate is not blocked, wherein the discharge blade includes a plurality of holes through which the air is discharged when the discharge blade is in the closed position . a housing including an outlet and a discharge plate having a plurality of holes formed adjacent to the outlet; a heat exchanger disposed inside the housing; a blower fan configured to blow air heat-exchanged by the heat exchanger; a discharge blade configured to be movable between a guide position at which the outlet is open and the air blown from the blower fan is guided, and a closed position at which the outlet is closed; and characterised by a flow path blade configured to be movable between a closed position at which the flow path blade is configured to block an air flow from the blower fan to the discharge plate , and an open position at which the air flow from the blower fan to the discharge plate is not blocked, wherein the discharge blade includes a plurality of holes through which the air is discharged when the discharge blade is in the closed position .