mhurhangee/ep-ind-claims huggingface dataset:
A water-vapor-permeable composite shoe sole with an upper side, comprising: at least one through hole extending through the thickness of the composite shoe sole; a barrier unit with an upper side forming at least partially the upper side of the composite shoe sole and with a water-vapor-permeable barrier material designed as a barrier against penetration of foreign objects, by means of which the at least one through hole is closed in a water-vapor-permeable manner; a stabilisation device (25, 119) assigned to the barrier material and designed for mechanical stabilisation of the composite shoe sole, which is constructed with at least one stabilisation bar which is arranged at least on one surface of the barrier material and at least partially bridges the at least one through hole; and at least one outsole part arranged beneath the barrier unit, wherein the stabilisation device (25, 119) has a plurality of said stabilisation bars that form a grid-like structure on at least one surface of the barrier material, characterised in that the composite shoe sole comprises a tread, wherein the barrier material has at least one support element assigned thereto in the through hole or in at least one of the through holes (33a, 33b, 33c), said support element extending from the side of the barrier material facing the tread to the level of the tread, so that the barrier material is supported on the traversed floor during walking by the support element, wherein at least one of the stabilisation bars is simultaneously designed as a support element. at least one through hole extending through the thickness of the composite shoe sole; a barrier unit with an upper side forming at least partially the upper side of the composite shoe sole and with a water-vapor-permeable barrier material designed as a barrier against penetration of foreign objects, by means of which the at least one through hole is closed in a water-vapor-permeable manner; a stabilisation device (25, 119) assigned to the barrier material and designed for mechanical stabilisation of the composite shoe sole, which is constructed with at least one stabilisation bar which is arranged at least on one surface of the barrier material and at least partially bridges the at least one through hole; and at least one outsole part arranged beneath the barrier unit, wherein the stabilisation device (25, 119) has a plurality of said stabilisation bars that form a grid-like structure on at least one surface of the barrier material, characterised in that the composite shoe sole comprises a tread, wherein the barrier material has at least one support element assigned thereto in the through hole or in at least one of the through holes (33a, 33b, 33c), said support element extending from the side of the barrier material facing the tread to the level of the tread, so that the barrier material is supported on the traversed floor during walking by the support element, wherein at least one of the stabilisation bars is simultaneously designed as a support element.
A method for determining a location of an analyte in a biological sample comprising: (a) providing the biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a first probe and a second probe with the biological sample, wherein the first probe and the second probe each comprise sequences that are substantially complementary to sequences of the analyte, and wherein the second probe comprises a capture probe capture domain that is complementary to all or a portion of the capture domain; (c) hybridizing the first probe and the second probe to the analyte; (d) generating a ligation product by ligating the first probe and the second probe; (e) releasing the ligation product from the analyte; (f) hybridizing the ligation product to the capture domain; and (g) determining (i) all or part of the sequence of the ligation product bound to the capture domain, or a complement thereof, and (ii) all or part of the sequence of the spatial barcode, or a complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the analyte in the biological sample. (a) providing the biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a first probe and a second probe with the biological sample, wherein the first probe and the second probe each comprise sequences that are substantially complementary to sequences of the analyte, and wherein the second probe comprises a capture probe capture domain that is complementary to all or a portion of the capture domain; (c) hybridizing the first probe and the second probe to the analyte; (d) generating a ligation product by ligating the first probe and the second probe; (e) releasing the ligation product from the analyte; (f) hybridizing the ligation product to the capture domain; and (g) determining (i) all or part of the sequence of the ligation product bound to the capture domain, or a complement thereof, and (ii) all or part of the sequence of the spatial barcode, or a complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the analyte in the biological sample.
An electric motor comprising: a rotating shaft; a rotor securely attached to the rotating shaft and including a cylindrical magnet portion; a stator formed in an annular shape on an outer peripheral side of the rotor; a board installed next to the rotor and the stator in the axial direction with a predetermined air gap between said board and the rotor and the stator; and a lead wire connected to the board, characterized in that a connecting portion of the board and the lead wire is formed at a position on the radially inner side of an axial projection of the magnet portion of the rotor on the board, a tapered surface is formed by chamfering a corner of the cylindrical magnet portion of the rotor where an axial surface facing the board and an inner peripheral surface meet, and a core of said rotor is shorter, in the axial direction, than the cylindrical magnet portion. a rotating shaft; a rotor securely attached to the rotating shaft and including a cylindrical magnet portion; a stator formed in an annular shape on an outer peripheral side of the rotor; a board installed next to the rotor and the stator in the axial direction with a predetermined air gap between said board and the rotor and the stator; and a lead wire connected to the board, characterized in that a connecting portion of the board and the lead wire is formed at a position on the radially inner side of an axial projection of the magnet portion of the rotor on the board, a tapered surface is formed by chamfering a corner of the cylindrical magnet portion of the rotor where an axial surface facing the board and an inner peripheral surface meet, and a core of said rotor is shorter, in the axial direction, than the cylindrical magnet portion.
Control device for controlling a power semiconductor component, wherein the power semiconductor component has at least two voltage-controlled power semiconductor component parts (V1, V2), which are electrically connected in parallel and which each have a control connection, wherein the control device comprises at least one driver element (GU, GU1, GU2), by means of which respective electrical voltages (U G1, U G2) can be set at the control connections of the power semiconductor component parts (V1, V2), wherein the control device has a measuring unit, which is designed to detect respective electric currents (I V1, I V2) flowing through the respective power semiconductor component parts (V1, V2) and that the at least one driver element is designed to set an amount and/or a time curve of the respective electrical voltages (U G1, U G2) as a function of the respective electric currents (I V1, I V2), characterised in that the at least one driver element (GU, GU1, GU2) is designed to set a periodic change in the respective electrical voltages (U G1, U G2) applied at the control connections by adjusting a gradient of the edges of the respective electrical voltages (U G1, U G2) when the power semiconductor component parts (V1, V2) are switched on and/or switched off as a function of the respective electric currents (I V1, I V2), wherein the electrical voltages (U G1, U G2) have straight edges when switched on and/or switched off, wherein the at least one driver element (GU, GU1, GU2) is designed to set the respective electrical voltages (U G1, U G2) on the basis of voltages set during a preceding operation of the power module, wherein the electrical currents (I V1, I V2), which flow through the power semiconductor component parts (V1, V2) with specific settings with respect to the electrical voltages (U G1, U G2), are stored and the at least one driver element (GU, GU1, GU2) is designed to determine the change in the respective electrical voltages (U G1, U G2) on the basis of the preceding settings.
An axle mounting for a vehicle axle, having an axle guide, a preferably tubular axle body crossing the axle guide at its lower or upper side (2A or 2B), an axle plate between the axle body and the axle guide, and pulling elements for pulling the axle body and the axle guide towards one another with the axle plate being interposed, wherein the axle plate - has a contour facing the axle body, which contour corresponds at least in areas to the outer contour of the axle body opposite the contour, - has an abutment area facing the lower or upper side (2A or 2B) of the axle guide and consisting of surface portions (11, 12) which make contact with the lower or upper side (2A or 2B) and between which there is an opening, characterized in that the width of the opening is equal to or greater than the width of the lower or upper side (2A or 2B) of the axle guide in the abutment area. - has a contour facing the axle body, which contour corresponds at least in areas to the outer contour of the axle body opposite the contour, - has an abutment area facing the lower or upper side (2A or 2B) of the axle guide and consisting of surface portions (11, 12) which make contact with the lower or upper side (2A or 2B) and between which there is an opening,
An isolated mutant of a wild-type staphylococcal leukocidin subunit polypeptide comprising SEQ ID NO: 5, 6 or 15, wherein the mutant staphylococcal leukocidin subunit polypeptide comprises an amino acid substitution at a position corresponding to K97 of SEQ ID NO: 6 which reduces toxicity of the mutant leukocidin subunit relative to the corresponding wild-type leukocidin subunit; or an isolated mutant of a wild-type staphylococcal leukocidin subunit polypeptide comprising SEQ ID NO: 16, 17, 21, 22, 23, 24, 25 or 26, wherein the mutant staphylococcal leukocidin subunit polypeptide comprises an amino acid substitution at a position corresponding to K102 of SEQ ID NO: 17, which reduces toxicity of the mutant leukocidin subunit relative to the corresponding wild-type leukocidin subunit.
A method for evaluating the crack intensity on a polymeric sheet based on a predetermined scale of crack intensity grades, comprising the steps of a) recording a digital image of at least a portion of a surface of the polymeric sheet using an apparatus for recording digital images; and b) automatic classification of the crack intensity by a computer-implemented program for pattern recognition by means of a trained artificial neural network, comprising 1) inputting the digital image or one or more subareas of the digital image to the trained artificial neural network as input data, 2) classification by the artificial neural network by assigning a grade from the predetermined scale of crack intensity grades to the digital image or the one or more subareas and 3) outputting the assigned grade or grades for the digital image and/or the one or more subareas as output data, wherein the artificial neural network is trained in advance in a learning phase with a plurality of digital images or subareas thereof of polymeric sheet surface portions, whose grades in the predetermined scale are known and cover all grades of the predetermined scale and wherein the polymeric sheet is a roofing membrane or a sealing membrane and wherein the apparatus for recording digital images is an optical device for recording digital images. a) recording a digital image of at least a portion of a surface of the polymeric sheet using an apparatus for recording digital images; and b) automatic classification of the crack intensity by a computer-implemented program for pattern recognition by means of a trained artificial neural network, comprising 1) inputting the digital image or one or more subareas of the digital image to the trained artificial neural network as input data, 2) classification by the artificial neural network by assigning a grade from the predetermined scale of crack intensity grades to the digital image or the one or more subareas and 3) outputting the assigned grade or grades for the digital image and/or the one or more subareas as output data, wherein the artificial neural network is trained in advance in a learning phase with a plurality of digital images or subareas thereof of polymeric sheet surface portions, whose grades in the predetermined scale are known and cover all grades of the predetermined scale and wherein the polymeric sheet is a roofing membrane or a sealing membrane and wherein the apparatus for recording digital images is an optical device for recording digital images. 1) inputting the digital image or one or more subareas of the digital image to the trained artificial neural network as input data, 2) classification by the artificial neural network by assigning a grade from the predetermined scale of crack intensity grades to the digital image or the one or more subareas and 3) outputting the assigned grade or grades for the digital image and/or the one or more subareas as output data,
A method for remote provision of a subscriber entity to a Public Land Mobile Network, PLMN, in a communications network (100a, 100b), the method being performed by the subscriber entity, the method comprising: obtaining a first list of PLMN identities, IDs, in the communications network for which a signal quality criterion is fulfilled; providing the first list of PLMN IDs and an Embedded Universal Integrated Circuit Card, eUICC ID of the subscriber entity to a network server (300a, 300b, 300c); receiving a third list of PLMN IDs from the network server, wherein the third list of PLMN IDs is based on a second list of PLMN IDs, which is determined by the network server based on UICC ID, and comprises those PLMN IDs with which the eUICC has a network service agreement, and wherein the third list of PLMN IDs consists of those PLMN IDs that the first list of PLMN IDs and the second list of PLMN IDs have in common, and selecting, when the third list of PLMN IDs is a non-empty list, one PLMN from the third list of PLMN IDs to remotely provision the subscriber entity. obtaining a first list of PLMN identities, IDs, in the communications network for which a signal quality criterion is fulfilled; providing the first list of PLMN IDs and an Embedded Universal Integrated Circuit Card, eUICC ID of the subscriber entity to a network server (300a, 300b, 300c); receiving a third list of PLMN IDs from the network server, wherein the third list of PLMN IDs is based on a second list of PLMN IDs, which is determined by the network server based on UICC ID, and comprises those PLMN IDs with which the eUICC has a network service agreement, and wherein the third list of PLMN IDs consists of those PLMN IDs that the first list of PLMN IDs and the second list of PLMN IDs have in common, and selecting, when the third list of PLMN IDs is a non-empty list, one PLMN from the third list of PLMN IDs to remotely provision the subscriber entity.
Harvester comprising a pick-up unit (12, 18, 60, 140) which comprises a shaft that carries pick-up tools for picking up crop from the ground, with at least one working unit (14, 80, 150, 160) being moreover provided for further processing crop picked up from the ground by the pick-up unit (12, 18, 60, 140), which working unit (14, 80, 150, 160) extends in a main extension direction (HE1, HE3) substantially in parallel to the main extension direction of the pick-up unit (12, 18, 60, 140) assigned to it, said working unit (14, 80, 150, 160) being designed such that, in the main extension direction (HE1, HE3), it has at least two segments (152, 154) which can be inclined with respect to one another, and between the segments (152, 154) there is a deflection point (AP1, AP3) which can be deflected relatively to the main extension direction (HE1, HE3), said pick-up unit (12, 18, 60, 140) being designed to have at least two segments (12a, 12b) which can be inclined relative to one another and which have a deflection point (AP2, AP4) between them that is deflectable relative to the main extension direction, characterized in that the working unit is provided in the form of a rotary conveyor unit (14, 150) for further conveying the crop picked up from the ground by the pick-up unit (12, 18, 140), which rotary conveyor unit (14, 150) is arranged vertically above the pick-up unit (12, 18, 140) assigned to it and rotates about at least one axis of rotation, said segments (152, 154) being formed by axis segments (16a, 16b) which can be inclined relative to one another.
A method performed by a computing device comprising an outward-facing image sensor, the method comprising: acquiring, via the outward-facing image sensor, image data of a first scene; recognizing a surface based on the image data, wherein recognizing the surface comprises determining a context of the surface by identifying an object incorporating the surface; in response to recognizing the surface, acquiring a representation of a second scene located behind a surface contextually related to the determined context of the recognized surface by using information of the context of the second scene, the representation comprising previously-collected image data; and displaying the representation via a see-through display device of the computing device. acquiring, via the outward-facing image sensor, image data of a first scene; recognizing a surface based on the image data, wherein recognizing the surface comprises determining a context of the surface by identifying an object incorporating the surface; in response to recognizing the surface, acquiring a representation of a second scene located behind a surface contextually related to the determined context of the recognized surface by using information of the context of the second scene, the representation comprising previously-collected image data; and displaying the representation via a see-through display device of the computing device.
Method for controlling the temperature inside a stack of a fuel cell, in particular a SOFC fuel cell, characterized by the steps of - determining a requested current, - determining a set value for a temperature parameter, the temperature parameter being calculated from the weighted temperature of the stack at the air intake and the weighted temperature of the stack at the air outlet in dependence upon the requested current on the basis of a process model, - controlling the temperature parameter using a manipulated variable, the manipulated variable being the amount of heat supplied through the air, - feeding of the requested current. - determining a requested current, - determining a set value for a temperature parameter, the temperature parameter being calculated from the weighted temperature of the stack at the air intake and the weighted temperature of the stack at the air outlet in dependence upon the requested current on the basis of a process model, - controlling the temperature parameter using a manipulated variable, the manipulated variable being the amount of heat supplied through the air, - feeding of the requested current.
Drilling tool for cooling lubricant-supported machining of full bores, comprising: - a drill shaft, - a drill face with main cutting edges configured thereon and associated flank faces, - at least one chipping groove which is open towards the drill shaft and extends axially from the drill face, - at least one coolant channel for the inside supply of cooling lubricant to the drill face, and - at least two primary guiding chamfers arranged on the circumferential surface of the drilling tool and extending axially, wherein a secondary guiding chamfer is configured associated with at least one of the primary guiding chamfers, said secondary guiding chamfer extending along this primary guiding chamfer and being spaced therefrom in the circumferential direction of the drilling tool, wherein a lubricant pocket for receiving cooling lubricant is configured between the primary guiding chamfer and the secondary guiding chamfer, said lubricant pocket being radially recessed from these guiding chamfers (41, 42), wherein - the lubricant pocket opens towards the flank face of the drill face, wherein - the coolant channel opens into the drill face and is in fluid communication with the lubricant pocket for transferring cooling lubricant from the coolant channel into the lubricant pocket, characterised in that - at least one connecting channel is configured on the drill face between the lubricant pocket and the coolant channel for transferring cooling lubricant from the coolant channel into the lubricant pocket. - a drill shaft, - a drill face with main cutting edges configured thereon and associated flank faces, - at least one chipping groove which is open towards the drill shaft and extends axially from the drill face, - at least one coolant channel for the inside supply of cooling lubricant to the drill face, and - at least two primary guiding chamfers arranged on the circumferential surface of the drilling tool and extending axially, wherein a secondary guiding chamfer is configured associated with at least one of the primary guiding chamfers, said secondary guiding chamfer extending along this primary guiding chamfer and being spaced therefrom in the circumferential direction of the drilling tool, wherein a lubricant pocket for receiving cooling lubricant is configured between the primary guiding chamfer and the secondary guiding chamfer, said lubricant pocket being radially recessed from these guiding chamfers (41, 42), wherein - the lubricant pocket opens towards the flank face of the drill face, wherein - the coolant channel opens into the drill face and is in fluid communication with the lubricant pocket for transferring cooling lubricant from the coolant channel into the lubricant pocket, characterised in that - at least one connecting channel is configured on the drill face between the lubricant pocket and the coolant channel for transferring cooling lubricant from the coolant channel into the lubricant pocket.
A compound selected from: (a) a compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein R 1 is cyclobutyl or R 2 is H or methoxy; and R 3 and R 4 are each, independently, H, hydroxyl, or NR 5 R 6 wherein R 5 and R 6 are each independently H, alkyl, or substituted acyl, or alternatively, R 3 and R 4, together with the carbon atom to which they are attached, form C=O or C=CH 2; and (b) or a pharmaceutically acceptable salt thereof. (a) a compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein R 1 is cyclobutyl or R 2 is H or methoxy; and R 3 and R 4 are each, independently, H, hydroxyl, or NR 5 R 6 wherein R 5 and R 6 are each independently H, alkyl, or substituted acyl, or alternatively, R 3 and R 4, together with the carbon atom to which they are attached, form C=O or C=CH 2; and R 1 is cyclobutyl or R 2 is H or methoxy; and R 3 and R 4 are each, independently, H, hydroxyl, or NR 5 R 6 wherein R 5 and R 6 are each independently H, alkyl, or substituted acyl, or alternatively, R 3 and R 4, together with the carbon atom to which they are attached, form C=O or C=CH 2; and (b) or a pharmaceutically acceptable salt thereof.