mhurhangee/ep-ind-claims huggingface dataset:
A monoclonal antibody or an antigen binding fragment thereof, which binds to a peptide comprising an amino acid sequence represented by SSVLYGGPPSAA (SEQ ID NO: 1) or a conjugate of the peptide and a pharmaceutically acceptable carrier, wherein the monoclonal antibody or an antigen binding fragment thereof comprising a light chain variable region comprising CDR1 consisting of an amino acid sequence represented by RASSSVSYMH (SEQ ID NO: 2), CDR2 consisting of an amino acid sequence represented by ATSNLAS (SEQ ID NO: 3) and CDR3 consisting of an amino acid sequence represented by QQWSSNPWT (SEQ ID NO: 4) and a heavy chain variable region comprising CDR1 consisting of an amino acid sequence represented by GYNMN (SEQ ID NO: 7), CDR2 consisting of an amino acid sequence represented by NINPYYGSTSYNQKFKG (SEQ ID NO: 8) and CDR3 consisting of an amino acid sequence represented by SPYYSNYWRYFDY (SEQ ID NO: 9). the monoclonal antibody or an antigen binding fragment thereof comprising a light chain variable region comprising CDR1 consisting of an amino acid sequence represented by RASSSVSYMH (SEQ ID NO: 2), CDR2 consisting of an amino acid sequence represented by ATSNLAS (SEQ ID NO: 3) and CDR3 consisting of an amino acid sequence represented by QQWSSNPWT (SEQ ID NO: 4) and a heavy chain variable region comprising CDR1 consisting of an amino acid sequence represented by GYNMN (SEQ ID NO: 7), CDR2 consisting of an amino acid sequence represented by NINPYYGSTSYNQKFKG (SEQ ID NO: 8) and CDR3 consisting of an amino acid sequence represented by SPYYSNYWRYFDY (SEQ ID NO: 9).
A position sensor, comprising: a flexible substrate, which is formed into a three-dimensional shape; at least first and second field-sensing coils (54, 56) formed in first and second respective layers of the flexible substrate, such that in the 3D shape the first and second field-sensing coils (54, 56) have first and second respective axes that are not parallel to one another, and a ferromagnetic element coupled to or adjacent to the flexible substrate; wherein the first and second field-sensing coils are configured to sense respective components of a magnetic field having different respective orientations, and to generate corresponding electrical signals indicative of the sensed components of the magnetic field, and wherein the ferromagnetic element is configured to amplify at least one of the sensed components. a flexible substrate, which is formed into a three-dimensional shape; at least first and second field-sensing coils (54, 56) formed in first and second respective layers of the flexible substrate, such that in the 3D shape the first and second field-sensing coils (54, 56) have first and second respective axes that are not parallel to one another, and a ferromagnetic element coupled to or adjacent to the flexible substrate; wherein the first and second field-sensing coils are configured to sense respective components of a magnetic field having different respective orientations, and to generate corresponding electrical signals indicative of the sensed components of the magnetic field, and wherein the ferromagnetic element is configured to amplify at least one of the sensed components.
A chemical heat accumulator comprising: a chemical heat storage material structure that includes a granular chemical heat storage material and a clay mineral and has a polyhedral structure; and a structure restriction member that accommodates the chemical heat storage material structure characterised in that the structure restriction member restricts each face of the accommodated chemical heat storage material structure at least at a portion of the face, and wherein the chemical heat storage material structure has a true density ratio of from 45 % to 63 %. a chemical heat storage material structure that includes a granular chemical heat storage material and a clay mineral and has a polyhedral structure; and a structure restriction member that accommodates the chemical heat storage material structure characterised in that the structure restriction member restricts each face of the accommodated chemical heat storage material structure at least at a portion of the face, and wherein the chemical heat storage material structure has a true density ratio of from 45 % to 63 %.
Pneumatic vehicle tyre having a tread strip with at least one circumferential groove which delimits positive profiles, such as profile ribs or tread bar rows, is delimited between the positive profiles by way of a groove bottom and two groove flanks (3, 3') which lie opposite one another, and on the groove bottom of which a number of elevations which are spaced apart from one another in the circumferential direction and act as sound absorbers are configured, the elevations having in each case one cylindrical base part which is positioned at least substantially centrally on the groove bottom, characterized in that four stabilizing webs (6, 6', 7, 7') run along the groove bottom in a star-shaped manner from the base part, in each case two stabilizing webs (6, 6', 7, 7') lying diametrically opposite one another, and the one pair of stabilizing webs (6, 6') which lie diametrically opposite one another running substantially in the circumferential direction of the circumferential groove, and the other stabilizing webs (7, 7') which lie diametrically opposite one another running substantially in the axial direction, and at least one of the said stabilizing webs (7, 7') which run substantially in the axial direction running as far as a groove flank (3, 3') and being connected to the latter.
Device for the production of core assemblies comprising a bead core and an upright or curved apex for pneumatic vehicle tyres, with or without a separator, comprising: - a rotatably mounted plate, - at least two processing stations (5, 6, 7, 8, 9), which are arranged on the plate and can be aligned with various process units by incrementally turning the plate, - each processing station (5, 6, 7, 8, 9) having a base plate and a gripping device for centring the bead core and the apex and also, if applicable, the separator, - a base ring being fixable on the base plate, base rings of different diameters being fixable, - each processing station (5, 6, 7, 8, 9) having a gripper drive system for actuating the gripping device, characterized - in that each processing station (5, 6, 7, 8, 9) has a height adjusting system for the vertical adjustment of the base plate with respect to the plate. - a rotatably mounted plate, - at least two processing stations (5, 6, 7, 8, 9), which are arranged on the plate and can be aligned with various process units by incrementally turning the plate, - each processing station (5, 6, 7, 8, 9) having a base plate and a gripping device for centring the bead core and the apex and also, if applicable, the separator, - a base ring being fixable on the base plate, base rings of different diameters being fixable, - each processing station (5, 6, 7, 8, 9) having a gripper drive system for actuating the gripping device, - in that each processing station (5, 6, 7, 8, 9) has a height adjusting system for the vertical adjustment of the base plate with respect to the plate.
A process for producing bis-anhydrohexitol ether compositions, comprising the following steps: a) bringing a dianhydrohexitol into contact with an organic halide, b) placing the resulting mixture of dianhydrohexitol and organic halide under vacuum so as to obtain a negative pressure of between 100 mbar and 1000 mbar, c) heating the mixture under vacuum at a temperature of between 50°C and 120°C and thus carrying out an azeotropic distillation, d) then adding to said mixture a basic reagent for a period of between 1 hour and 10 hours and then continuing the azeotropic distillation, e) recovering the bis-anhydrohexitol ether composition after a filtration step, concentration of the filtering and optionally a purification step. a) bringing a dianhydrohexitol into contact with an organic halide, b) placing the resulting mixture of dianhydrohexitol and organic halide under vacuum so as to obtain a negative pressure of between 100 mbar and 1000 mbar, c) heating the mixture under vacuum at a temperature of between 50°C and 120°C and thus carrying out an azeotropic distillation, d) then adding to said mixture a basic reagent for a period of between 1 hour and 10 hours and then continuing the azeotropic distillation, e) recovering the bis-anhydrohexitol ether composition after a filtration step, concentration of the filtering and optionally a purification step.
A method for producing a weakening line in a surface of a component, the method comprising the following steps: guiding a removal apparatus for removing a material from the surface over a plurality of portions (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of a predefined line-shaped contour using an activated laser beam to create a target wall thickness for at least one of the portions (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) to create the weakening line; and skipping the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) if the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) has the target wall thickness, characterized by a step of generating, in which a lead-in section for a downstream portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) following the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of the contour is generated, wherein the removal apparatus jumps to the lead-in section in the skipping step in order to be moved over the lead-in section, and/or in which a lead-out section is generated for an upstream portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of the contour arranged upstream of the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8), wherein the removal apparatus is moved over the lead-out section before the skipping step. guiding a removal apparatus for removing a material from the surface over a plurality of portions (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of a predefined line-shaped contour using an activated laser beam to create a target wall thickness for at least one of the portions (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) to create the weakening line; and skipping the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) if the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) has the target wall thickness, characterized by a step of generating, in which a lead-in section for a downstream portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) following the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of the contour is generated, wherein the removal apparatus jumps to the lead-in section in the skipping step in order to be moved over the lead-in section, and/or in which a lead-out section is generated for an upstream portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8) of the contour arranged upstream of the portion (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8), wherein the removal apparatus is moved over the lead-out section before the skipping step.
Overhead line system for the provision of electrical energy for an electrically driven vehicle by means of an overhead line (12a, 12b), having - multiple catenary systems (16, 22, 30, 36), each of which has a contact wire (20, 26, 34, 40) connected to a carrying cable (18, 24, 32, 38) by means of multiple connection devices (42, 44, 46, 47) and which are arranged on the basis of parallel zones (48, 50) to form a continuously accessible overhead line (12a, 12b); - at least one overhead line (12a, 12b), which is arranged in a curvature section such that the vertical projection thereof in a horizontal plane has a curved profile; characterised in that the overhead line system has at least one curved parallel zone, which is arranged in the curvature section such that the vertical projection thereof in the horizontal plane in the curvature section follows the said curved profile of the projection of the at least one overhead line (12a, 12b). - multiple catenary systems (16, 22, 30, 36), each of which has a contact wire (20, 26, 34, 40) connected to a carrying cable (18, 24, 32, 38) by means of multiple connection devices (42, 44, 46, 47) and which are arranged on the basis of parallel zones (48, 50) to form a continuously accessible overhead line (12a, 12b); - at least one overhead line (12a, 12b), which is arranged in a curvature section such that the vertical projection thereof in a horizontal plane has a curved profile;
A self-authentication device for the user or owner of an electronic security device, wherein the self-authentication device is separate from the security device and is configured for connecting to a computing device (300, 400, 500, 600) via a first communication link for self-authentication processing, and wherein the self-authentication device is configured for enabling resetting a user-password stored in the security device upon successful self-authentication without requiring user-input of an authorization password.
Reinforcing assembly, with a reinforcing body having mutually crossing reinforcing elements, with at least one retaining anchor unit which is arranged on the reinforcing body and has a foot portion arranged on the reinforcing body and a retaining portion adjoining the foot portion, wherein the retaining portion is movable between a function position and a storage position, and wherein the retaining portion in the storage position extends along the reinforcing body and in the function position protrudes obliquely or at right angles away from the reinforcing body, wherein the at least one retaining anchor unit in the storage position is loaded with a preload force and/or a preload moment such that the retaining portion is forced in the direction of the function position, characterised in that each reinforcing element and each retaining anchor (38, 39) comprises at least one fibre bundle in which a matrix is embedded, and that each retaining anchor unit comprises two retaining anchors (38, 39), each of which has a foot part and a retaining part extending at right angles or obliquely to the foot part.
A cooling appliance comprising; a body; a door pivotable attached onto the body between a closed and an open position, wherein the door and the body delimits an inner volume in the closed position of the door; an inner liner facing the inner volume; a storage unit removable attached onto the inner liner comprising a water outlet; a water dispensing unit comprising; a housing at least partly enclosing; a nozzle removable placed to the water outlet to regulate water flow upon being activated; characterized by a button having a neutral orientation during which the water is prevented to flow and a pressed orientation during which the button is configured to activate the nozzle, wherein the button comprises a drip tray configured to collect water drops from the nozzle wherein the nozzle comprises at least a protrusion and that the button comprises at least a pusher having an inclined surface wherein the pusher is configured to abut against the protrusion and lift a part of the nozzle as the orientation of the button moves in the housing in a slidably manner between a neutral orientation and a pressed orientation. a body; a door pivotable attached onto the body between a closed and an open position, wherein the door and the body delimits an inner volume in the closed position of the door; an inner liner facing the inner volume; a storage unit removable attached onto the inner liner comprising a water outlet; a water dispensing unit comprising; a housing at least partly enclosing; a nozzle removable placed to the water outlet to regulate water flow upon being activated; characterized by a button having a neutral orientation during which the water is prevented to flow and a pressed orientation during which the button is configured to activate the nozzle, wherein the button comprises a drip tray configured to collect water drops from the nozzle wherein the nozzle comprises at least a protrusion and that the button comprises at least a pusher having an inclined surface wherein the pusher is configured to abut against the protrusion and lift a part of the nozzle as the orientation of the button moves in the housing in a slidably manner between a neutral orientation and a pressed orientation.
A musical instrument configured to receive strings and a bridge, the instrument comprising: a back separated from a top by a rib structure to define an interior of the instrument; and a soundpost within the interior and spanning between an inner surface of the back and an inner surface of the top, wherein: the instrument is configured to receive the bridge positioned between the strings and an outer surface of the top to support the strings over the top, CHARACTERISED IN THAT: the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back, the top acquires a concave shape and the back acquires a convex shape. a back separated from a top by a rib structure to define an interior of the instrument; and a soundpost within the interior and spanning between an inner surface of the back and an inner surface of the top, wherein: the instrument is configured to receive the bridge positioned between the strings and an outer surface of the top to support the strings over the top, CHARACTERISED IN THAT: the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back, the top acquires a concave shape and the back acquires a convex shape. the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back, the top acquires a concave shape and the back acquires a convex shape.
A computer-implemented method for setting access permissions on a resource based on location information, the method comprising: receiving a permission update request to update permissions for an identified resource to include location-based permission information; locating the identified resource; locating access control information associated with the identified resource; determining one or more allowed actions from the location-based permission information accompanying the request, wherein the location-based permission information includes at least geographic location information defining a geographic region upon which the location based permission is applied; updating the located access control information to include the allowed location-based actions; and storing the updated access control information associated with the identified resource, so that subsequent attempts to access the identified resource by a computing device will be subject to the specified location-based access information, wherein a location certificate from a global positioning system, GPS, and/or trusted platform module, TPM, hardware indicates a current geographic location of the computing device, wherein the preceding steps are performed by at least one processor. receiving a permission update request to update permissions for an identified resource to include location-based permission information; locating the identified resource; locating access control information associated with the identified resource; determining one or more allowed actions from the location-based permission information accompanying the request, wherein the location-based permission information includes at least geographic location information defining a geographic region upon which the location based permission is applied; updating the located access control information to include the allowed location-based actions; and storing the updated access control information associated with the identified resource, so that subsequent attempts to access the identified resource by a computing device will be subject to the specified location-based access information, wherein a location certificate from a global positioning system, GPS, and/or trusted platform module, TPM, hardware indicates a current geographic location of the computing device, wherein the preceding steps are performed by at least one processor.
An orthodontic bracket for coupling an archwire with a tooth, comprising a bracket body configured to be mounted to the tooth, the bracket body including an archwire slot adapted to receive the archwire therein, and a support surface that at least in part defines a slide engagement track, and a movable member engaged with the slide engagement track and movable relative thereto between an opened position in which the archwire is insertable into the archwire slot, and a closed position in which the movable member retains the archwire in the archwire slot, wherein at least a portion of the support surface is positioned lingually of a labial edge of the archwire slot, characterized in that the bracket body and the movable member are made from a transparent or translucent ceramic material.
A detector for detecting electrically conductive material, the detector comprising: - at least one transmitter having a transmitter coil and a supply source, - a receiver having a receiver coil, and - an evaluation unit, wherein - the transmitter coil is connected to the supply source, - the supply source is configured to provide an alternating voltage or an alternating current when in use, - the receiver is designed as a resonant-circuit-free receiver, - the receiver is connected to the evaluation unit, - the evaluation unit is configured to detect a signal induced in the receiver coil, - the receiver has an additional receiver coil, - the receiver coil and the additional receiver coil have the same construction and the same winding direction, - the evaluation unit has a differential amplifier, - a controller is connected to the differential amplifier, characterized in that - the receiver coil and the additional receiver coil each have one of their ends connected to the differential amplifier, and the respective other ends of the receiver coil and the additional receiver coil are each connected to a voltage source, - the receiver is operated in such a way that the two voltage sources each provide an alternating voltage and the receiver coil and the additional receiver coil are each supplied with this voltage, and - the frequency of this alternating voltage is the same as the frequency of the alternating voltage applied to the transmitter coil. - at least one transmitter having a transmitter coil and a supply source, - a receiver having a receiver coil, and - an evaluation unit, wherein - the transmitter coil is connected to the supply source, - the supply source is configured to provide an alternating voltage or an alternating current when in use, - the receiver is designed as a resonant-circuit-free receiver, - the receiver is connected to the evaluation unit, - the evaluation unit is configured to detect a signal induced in the receiver coil, - the receiver has an additional receiver coil, - the receiver coil and the additional receiver coil have the same construction and the same winding direction, - the evaluation unit has a differential amplifier, - a controller is connected to the differential amplifier, - the receiver coil and the additional receiver coil each have one of their ends connected to the differential amplifier, and the respective other ends of the receiver coil and the additional receiver coil are each connected to a voltage source, - the receiver is operated in such a way that the two voltage sources each provide an alternating voltage and the receiver coil and the additional receiver coil are each supplied with this voltage, and - the frequency of this alternating voltage is the same as the frequency of the alternating voltage applied to the transmitter coil.