mhurhangee/ep-ind-claims huggingface dataset:
A toe unit for an alpine touring binding for holding a footwear toe to a snow travel aid when the heel of the footwear is detached from the snow travel aid, the apparatus comprising jaws (103, 203) that grasp the footwear toe while permitting pivotal movement of the footwear about the footwear toe in forward and rearward directions, the apparatus comprising one or more resilient elements (105, 205) for biasing the jaws towards a closed position throughout the operational range of motion of said jaws, characterized in that, the toe unit comprises a step-in lever for actuating said jaws, the step-in lever further actuating a toe stop positioned forward of the toe, wherein movement of the step-in lever to close the jaws translates the toe stop away from the toe and movement of the step-in lever to open the jaws translates the toe stop to be positioned in front of the toe, wherein the toe stop assists the user in correctly placing the footwear when entering the binding.
A composite metal oxide material, comprising: a central core, in which the central core material has a chemical formula of Li 5 Fe x M 1-x O 4, 0.6≤x<1; and a coating layer on the surface of the central core, in which the coating layer material has a chemical formula of LiMO 2; wherein M is one or more metal elements with +3 valence, and an absolute value of the difference between +3-valence ion radius of Fe and +3-valence ion radius of M is ≤0.02nm. a central core, in which the central core material has a chemical formula of Li 5 Fe x M 1-x O 4, 0.6≤x<1; and a coating layer on the surface of the central core, in which the coating layer material has a chemical formula of LiMO 2; wherein M is one or more metal elements with +3 valence, and an absolute value of the difference between +3-valence ion radius of Fe and +3-valence ion radius of M is ≤0.02nm.
A computer-implemented method of identifying faces in a video, comprising: generating one or more face tracks from at least one input video stream, wherein the one or more face track respectively comprise a sequence of face images and respective feature vectors of a person's face appearing in consecutive frames of the video stream; clustering the face images of the one or more face tracks to generate one or more clusters of related face images, wherein the one or more clusters are respectively associated with one or more variations of the face, selecting a face image from each of the clusters of face images to represent the respective clusters as key face images for the respective clusters; creating face models for one or more of the key face images, wherein the face models each comprise a respective reduced set of features which describe specific properties of the person's face in association with the respective key face images; correlating at least one of the face models with a face model included in a face model database; and updating the face model in the database based on feature vectors associated with the at least one of the face models. generating one or more face tracks from at least one input video stream, wherein the one or more face track respectively comprise a sequence of face images and respective feature vectors of a person's face appearing in consecutive frames of the video stream; clustering the face images of the one or more face tracks to generate one or more clusters of related face images, wherein the one or more clusters are respectively associated with one or more variations of the face, selecting a face image from each of the clusters of face images to represent the respective clusters as key face images for the respective clusters; creating face models for one or more of the key face images, wherein the face models each comprise a respective reduced set of features which describe specific properties of the person's face in association with the respective key face images; correlating at least one of the face models with a face model included in a face model database; and updating the face model in the database based on feature vectors associated with the at least one of the face models.
Household appliance comprising a carcass, a door for closing an internal space, a differential pressure sensor having a sensor membrane for detecting a pressure difference between an internal air pressure in the internal space and an external air pressure in an external space, a door-opening aid for assisting the door opening process and a controller for controlling the door-opening aid as a function of the detected pressure difference, characterised in that the controller is designed to detect a pressure profile of the pressure difference, and to control the door-opening aid as a function of said detected pressure profile.
An antibody-drug conjugate compound wherein a linker drug is site-specifically conjugated to an IgG1 antibody through an engineered cysteine in said antibody at heavy chain position 41 according to Kabat numbering, wherein said linker drug comprises a duocarmycin derivative.
An apparatus for dehydrating organic material, comprising: (a) a vacuum chamber; (b) a microwave generator; (c) a microwave-transparent window for transmission of microwave radiation from the microwave generator into the vacuum chamber; (d) a microwave chamber between the microwave generator and the microwave-transparent window; and (e) means for conveying the organic material across the microwave-transparent window within the vacuum chamber, characterised in that the means for conveying extends along the microwave-transparent window and in contact with the microwave-transparent window. (a) a vacuum chamber; (b) a microwave generator; (c) a microwave-transparent window for transmission of microwave radiation from the microwave generator into the vacuum chamber; (d) a microwave chamber between the microwave generator and the microwave-transparent window; and (e) means for conveying the organic material across the microwave-transparent window within the vacuum chamber,
Electromagnetically actuable valve, in particular fuel injection valve for fuel injection systems of internal combustion engines, having a valve longitudinal axis, having a core, having a magnet coil, having a coil body which accommodates the winding of the magnet coil, having an armature, which armature actuates a valve closing body which interacts with a fixed valve seat and which armature, when the magnet coil is excited, is pulled against the core, and having an armature-side flux-conducting element, wherein the armature-side flux-conducting element is in the form of a valve seat support or nozzle body, and the coil body or the insert part surrounded by the coil body has a stepped internal opening (62, 62a) into which the core and the armature-side flux-conducting element at least partially project, characterized in that the coil body itself is composed of a plastic and is formed and arranged such that magnetic separation between the core and the armature-side flux-conducting element is ensured, or an insert part which is surrounded by the coil body and rotationally fixed to said coil body is composed of a plastic and is formed and arranged such that magnetic separation between the core and the armature-side flux-conducting element is ensured.
A method for producing light-guide optical elements (LOEs, 12) each having a pair of mutually-parallel major external surfaces for guiding image illumination propagating within the LOE by internal reflection at the major external surfaces, each LOE further having an active region comprising a set of mutually-parallel partially-reflecting surfaces located between, and oriented non-parallel to, the major external surfaces, and at least one secondary region, all of said partially-reflecting surfaces terminating at a boundary between the active region and the secondary region, the method comprising the steps of: a) bonding together a plurality of parallel-faced plates at a plurality of interfaces so as to form a stack of plates, one face at each of said interfaces having a coating to provide partially-reflecting optical properties; b) cutting and polishing said stack of plates to form a boundary plane intersecting at least one of said interfaces; c) bonding a block of transparent material to said stack at said boundary plane to form a precursor structure; and the method characterized in that it further comprises: d) slicing said precursor structure along a plurality of parallel planes so as to form a plurality of slices, each slice containing a part of said stack for providing the active region of the LOE and a part of said block to provide the secondary region of the LOE. a) bonding together a plurality of parallel-faced plates at a plurality of interfaces so as to form a stack of plates, one face at each of said interfaces having a coating to provide partially-reflecting optical properties; b) cutting and polishing said stack of plates to form a boundary plane intersecting at least one of said interfaces; c) bonding a block of transparent material to said stack at said boundary plane to form a precursor structure; and
A microfluidic chip (102, 202, 302), comprising: a microfluidic channel (126, 226-1, 226-2, 326); an outlet (133, 233-1, 233-2) at an end of the microfluidic channel (133, 233-1, 233-2), whereby the outlet is a nozzle; the nozzle having an air interface in that it is exposed to air; and an impedance sensor (131, 231-1, 231-2, 331) arranged to form an electric field region located within the microfluidic channel (126, 226-1, 226-2, 326); the chip being characterized in that: the impedance sensor (131, 231-1, 231-2, 331) is located within a particular proximity to the air interface, whereby the impedance sensor is less than 100 micrometers from the nozzle, the impedance sensor being arranged to determine a stage of a coagulation cascade of a blood sample flowing through the microfluidic channel (126, 226-1, 226-2, 326) to the impedance sensor (131, 231-1, 231-2, 331). a microfluidic channel (126, 226-1, 226-2, 326); an outlet (133, 233-1, 233-2) at an end of the microfluidic channel (133, 233-1, 233-2), whereby the outlet is a nozzle; the nozzle having an air interface in that it is exposed to air; and an impedance sensor (131, 231-1, 231-2, 331) arranged to form an electric field region located within the microfluidic channel (126, 226-1, 226-2, 326); the chip being characterized in that: the impedance sensor (131, 231-1, 231-2, 331) is located within a particular proximity to the air interface, whereby the impedance sensor is less than 100 micrometers from the nozzle, the impedance sensor being arranged to determine a stage of a coagulation cascade of a blood sample flowing through the microfluidic channel (126, 226-1, 226-2, 326) to the impedance sensor (131, 231-1, 231-2, 331).
Head of tube adapted to be associated with a skirt so as to form an internal volume of the tube, said head of tube comprising a body, said body comprising a neck and a shoulder comprising an internal surface and an external surface, said head of tube also comprising an insert arranged in contact with said internal surface, so as to form a barrier between the body and the product contained in the internal volume, said external surface of the shoulder comprising, opposite the insert, a surface of attachment of said skirt, characterized in that said surface of attachment has a radius of curvature between 2.5mm and 5mm.
A first near-field electromagnetic induction (NFEMI) device, comprising an NFEMI antenna, and a controller configured to be coupled to the NFEMI antenna and to a structure; wherein the NFEMI antenna includes electric near-field and magnetic near-field generating and/or receiving portions; wherein the controller is configured to modulate a ratio of energy sent to and/or received from the electric and magnetic portions characterized in that the controller is configured to receive a signal corresponding to whether the structure is between the first NFEMI device and a second NFEMI device; and the controller is configured to decrease the ratio of energy sent to and/or received from the electric portion as compared to energy sent to and/or received from the magnetic portion if the structure is between the first and second NFEMI devices.
A medical device for closing an opening in a body lumen in a patient, such as a blood vessel, from the inside thereof; said device comprising an aggregate of an elongate delivery unit having a distal end, a support structure having a first shape, which is a temporary delivery shape, for delivery to an interior of said body lumen through said puncture and to be subsequently controllably subjected to a change of shape to a second shape, which is a tubular shape, when delivered in said body lumen, and a patch member attached to said support structure at an intermediate portion between two opposite ends thereof; wherein said distal end of said elongate delivery unit is radially releasably attacheable to said aggregate at a radial attachment position of said support structure intermediate between ends of said patch member only and detachable therefrom upon deployment of said aggregate in said body lumen; wherein said patch member is sized and shaped for arranging it towards an inner tissue wall of said body lumen at a site of said puncture of said body lumen and extending over a puncture opening, and wherein said delivery unit comprises a delivery wire that extends in a direction radially from said aggregate through said opening, such that said puncture is controllably sealed off by said patch when drawing said delivery device in a direction out of said puncture and tightening said patch over said opening before said change of shape of said support structure, and wherein said delivery shape is a radially collapsed shape of said support structure and said patch member folded over said collapsed support structure, and wherein said support structure and/or said patch comprises at least one fiducial marker for identifying a rotational orientation of said patch in relation to said opening.
A portable interdental toothbrush which comprises: a cleaning solution tube in which a cleaning solution is received to be carried conveniently and an assembly protrusion for discharging the cleaning solution is formed; and a tube cover assembled detachably to the assembly protrusion of the cleaning solution tube, in which an assembly hole into which the assembly protrusion of the cleaning solution tube is inserted and assembled is formed on one end, and an assembly hole followed by a fixing hole having a diameter larger than that of the assembly hole is formed on the other end, characterized in that, a brush fixing portion having an insertion end inserted into the fixing hole of the tube cover and fixed, a protruded close adhesion end formed on a free end of the insertion end to be contacted detachably to the assembly protrusion, and a brush fixed at the other end thereof a cleaning solution tube in which a cleaning solution is received to be carried conveniently and an assembly protrusion for discharging the cleaning solution is formed; and a tube cover assembled detachably to the assembly protrusion of the cleaning solution tube, in which an assembly hole into which the assembly protrusion of the cleaning solution tube is inserted and assembled is formed on one end, and an assembly hole followed by a fixing hole having a diameter larger than that of the assembly hole is formed on the other end, characterized in that, a brush fixing portion having an insertion end inserted into the fixing hole of the tube cover and fixed, a protruded close adhesion end formed on a free end of the insertion end to be contacted detachably to the assembly protrusion, and a brush fixed at the other end thereof
Heat exchanger tube produced by bending a metal strip, said strip having a thickness that can vary between at least one first thickness ( e 1) and at least one second thickness ( e 2) greater than said first thickness ( e 1), characterized - in that said tube has thinned first zones and reinforced second zones located at the points of greatest mechanical stress, said first zones being formed by first portions of said strip of first thickness ( e 1) and said reinforced second zones being formed by second portions of said strip of second thickness ( e 2), - in that said strip has opposite margins (11a, 11b) of second thickness ( e 2) and - in that said tube has a reinforced second zone obtained by bending said margins (11a, 11b) over and by joining said bent-over margins (11a, 11b) together, and - in that it has two opposite large lateral faces (21a, 21b) which are connected by two small lateral faces (21c, 21d), said small lateral faces (21c, 21d) being reinforced second zones. - in that said tube has thinned first zones and reinforced second zones located at the points of greatest mechanical stress, said first zones being formed by first portions of said strip of first thickness ( e 1) and said reinforced second zones being formed by second portions of said strip of second thickness ( e 2), - in that said strip has opposite margins (11a, 11b) of second thickness ( e 2) and - in that said tube has a reinforced second zone obtained by bending said margins (11a, 11b) over and by joining said bent-over margins (11a, 11b) together, and - in that it has two opposite large lateral faces (21a, 21b) which are connected by two small lateral faces (21c, 21d), said small lateral faces (21c, 21d) being reinforced second zones.
A grease trap for separating waste from waste water comprising a tank having a downwardly shaped bottom; an upwardly shaped divider dividing the tank into an upper chamber and a lower chamber, with a hole near or at an upper part of the divider, for allowing waste into the upper chamber; an inlet in the tank for receiving incoming waste water; an outlet for removing water from the tank; and a pipe extending to the lower chamber for sucking solid waste out of the lower chamber, characterised in that: the grease trap further comprises a lid covering the tank; the inlet is an inlet invert, the outlet is an outlet invert, and the upwardly shaped divider is positioned above an inlet invert opening and an outlet invert opening. the grease trap further comprises a lid covering the tank; the inlet is an inlet invert, the outlet is an outlet invert, and the upwardly shaped divider is positioned above an inlet invert opening and an outlet invert opening.
A delivery system for delivering a stent in a body of a patient, comprising: a flexible catheter tube with a proximal and a distal end for delivering the stent to a predetermined point in the body vessel and a catheter tip with a longitudinal direction, which is arranged at the distal end of the catheter tube, wherein the catheter tip has a stent chamber for receiving the stent, wherein the catheter tip has a first pressure chamber (20, 22), wherein a first fluid channel extends in the catheter tube from the proximal end to the first pressure chamber (20, 22) of the catheter tip and wherein a volume of the first pressure chamber (20, 22) is enlargeable by delivering a first fluid from the first fluid channel to the first pressure chamber (20, 22) and, as a result thereof, the stent is releasable from the stent chamber at the predetermined point in the body vessel, characterized in that the catheter tip has a second pressure chamber (21, 23), in that a second fluid channel extends in the catheter tube from the proximal end to the second pressure chamber (21, 23), in that a volume of the second pressure chamber (21, 23) is enlargeable by delivering a second fluid from the second fluid channel to the second pressure chamber (21, 23), as a result of which a partly released stent is retractable into the stent chamber from the predetermined point in the body vessel. a flexible catheter tube with a proximal and a distal end for delivering the stent to a predetermined point in the body vessel and a catheter tip with a longitudinal direction, which is arranged at the distal end of the catheter tube, wherein the catheter tip has a stent chamber for receiving the stent, wherein the catheter tip has a first pressure chamber (20, 22), wherein a first fluid channel extends in the catheter tube from the proximal end to the first pressure chamber (20, 22) of the catheter tip and wherein a volume of the first pressure chamber (20, 22) is enlargeable by delivering a first fluid from the first fluid channel to the first pressure chamber (20, 22) and, as a result thereof, the stent is releasable from the stent chamber at the predetermined point in the body vessel, characterized in that the catheter tip has a second pressure chamber (21, 23), in that a second fluid channel extends in the catheter tube from the proximal end to the second pressure chamber (21, 23), in that a volume of the second pressure chamber (21, 23) is enlargeable by delivering a second fluid from the second fluid channel to the second pressure chamber (21, 23), as a result of which a partly released stent is retractable into the stent chamber from the predetermined point in the body vessel.
A catalyst layer for a fuel cell, comprising a carbon carrier having pores, a catalyst metal carried on the carbon carrier, and a perfluorosulfonic acid-type resin covering the carbon carrier, wherein the crystal length of the carbon carrier is not less than 16 nm and not more than 20 nm, the crystal length of the carbon carrier being a value measured by the Scherrer method using X-ray diffraction, the coverage of the catalyst metal by the perfluorosulfonic acid-type resin is 55% to 65%, the coverage being calculated by the method disclosed in the specification, the primary particle diameter of the carbon carrier is 200 to 700 nm, the primary particle diameter of the carbon carrier being a number average of equivalent circular diameters of 200 to 300 particles of the same type, measured from transmission electron microscope or scanning electron microscope images with magnification from 50,000 to 1,000,000 times, and a weight ratio of the carbon carrier and the perfluorosulfonic acid-type resin, in carbon carrier: perfluorosulfonic acid-type resin, is 1.0:0.5 to 1.0:1.2. the crystal length of the carbon carrier is not less than 16 nm and not more than 20 nm, the crystal length of the carbon carrier being a value measured by the Scherrer method using X-ray diffraction, the coverage of the catalyst metal by the perfluorosulfonic acid-type resin is 55% to 65%, the coverage being calculated by the method disclosed in the specification, the primary particle diameter of the carbon carrier is 200 to 700 nm, the primary particle diameter of the carbon carrier being a number average of equivalent circular diameters of 200 to 300 particles of the same type, measured from transmission electron microscope or scanning electron microscope images with magnification from 50,000 to 1,000,000 times, and a weight ratio of the carbon carrier and the perfluorosulfonic acid-type resin, in carbon carrier: perfluorosulfonic acid-type resin, is 1.0:0.5 to 1.0:1.2.
Device comprising: at least one mounting area (102, 104, 106, 108); a plurality of light emitting diodes (110, 112, 114) respectively mounted on said at least one mounting area and configured to emit light of a specific color; and at least one integrated circuit mounted on said at least one mounting area and configured to drive at least one of said plurality of light emitting diodes, wherein a most temperature sensitive light emitting diode of said plurality of light emitting diodes is located between less temperature sensitive light emitting diodes (112, 114) of said plurality of light emitting diodes and said at least one integrated circuit. at least one mounting area (102, 104, 106, 108); a plurality of light emitting diodes (110, 112, 114) respectively mounted on said at least one mounting area and configured to emit light of a specific color; and at least one integrated circuit mounted on said at least one mounting area and configured to drive at least one of said plurality of light emitting diodes, wherein a most temperature sensitive light emitting diode of said plurality of light emitting diodes is located between less temperature sensitive light emitting diodes (112, 114) of said plurality of light emitting diodes and said at least one integrated circuit.