mhurhangee/ep-ind-claims huggingface dataset:
A vehicle frame, comprising a first longitudinal beam, a second longitudinal beam, a first traction beam, and a second traction beam, wherein an extension direction of the first longitudinal beam and an extension direction of the second longitudinal beam are both parallel to a running direction of a train, and the first longitudinal beam and the second longitudinal beam are arranged at an interval in a direction parallel to a horizontal plane; and a front end of the first longitudinal beam and a front end of the second longitudinal beam are connected by the first traction beam, and a rear end of the first longitudinal beam and a rear end of the second longitudinal beam are connected by the second traction beam; wherein the first longitudinal beam comprises an upper side beam, a lower side beam and an outer covering plate, an extension direction of the upper side beam and an extension direction of the lower side beam being both parallel to the running direction of the train, the upper side beam and the lower side beam being arranged at an interval in a direction perpendicular to the horizontal plane, and the outer covering plate covers sides, away from the second longitudinal beam, of the upper side beam and the lower side beam; wherein the upper side beam is made of channel steel, the lower side beam includes a first support plate and a second support plate, characterized in that, one end of the first support plate being perpendicularly connected with one end of the second support plate, the other end of the first support plate and the other end of the second support plate are connected with the outer covering plate. wherein the first longitudinal beam comprises an upper side beam, a lower side beam and an outer covering plate, an extension direction of the upper side beam and an extension direction of the lower side beam being both parallel to the running direction of the train, the upper side beam and the lower side beam being arranged at an interval in a direction perpendicular to the horizontal plane, and the outer covering plate covers sides, away from the second longitudinal beam, of the upper side beam and the lower side beam; wherein the upper side beam is made of channel steel, the lower side beam includes a first support plate and a second support plate, characterized in that, one end of the first support plate being perpendicularly connected with one end of the second support plate, the other end of the first support plate and the other end of the second support plate are connected with the outer covering plate.
A reactive solvent-free adhesive composition comprising: a polybutadiene polyol; a compound having a thiol group; and a radical initiator. a polybutadiene polyol; a compound having a thiol group; and a radical initiator.
A composite fertilizer, comprising two functional components of polyglutamic acid and magnesium ammonium phosphate, wherein a weight ratio of the polyglutamic acid to the magnesium ammonium phosphate is 1: 100 to 10,000.
A kit for performing a competitive immunoassay for a sample analyte suspected of being present in a blood sample, comprising: sacrificial beads opsonized to leukocytes, a labeled analyte, and an immobilized antibody to the sample analyte and to the labeled analyte, wherein the immobilized antibody is attached to a sensor selected from the group consisting of an amperometric electrode, a potentiometric electrode, a conductimetric electrode, an optical wave guide, a surface plasmon resonance sensor, an acoustic wave sensor and a piezoelectric sensor, or wherein the immobilized antibody is attached to an assay bead, and the assay bead is attached to an amperometric electrode. sacrificial beads opsonized to leukocytes, a labeled analyte, and an immobilized antibody to the sample analyte and to the labeled analyte, wherein the immobilized antibody is attached to a sensor selected from the group consisting of an amperometric electrode, a potentiometric electrode, a conductimetric electrode, an optical wave guide, a surface plasmon resonance sensor, an acoustic wave sensor and a piezoelectric sensor, or wherein the immobilized antibody is attached to an assay bead, and the assay bead is attached to an amperometric electrode.
METHOD FOR REDUCING THE COLOR OF SUGAR, and/or any intermediate of a process for obtaining sugar, characterized by the fact that this comprises the addition of Components 1, 2 and 3, wherein the Components are: Component 1: sodium chlorite, tropolone,, beta-fluorocaffeic acid, or a sulfoxylate; or a salt of the form M +- O-S(=O)-CH R; or a monobasic organic acid of sulfur having the general formula RSO 2 H; wherein M + can be a mono or multivalent cation, and wherein R = H, C 1 -C 20 alkyl, branched C 1 -C 20 alkyl, cyclic C 5 -C 6 alkyl, aryl, benzyl, or heterocyclic C 5 -C 6 rings, and wherein R can be substituted or unsubstituted; or mixtures thereof; Component 2: one or more of sulfites, metabisulfites, bisulfites, or sulfur dioxide or a source thereof; and Component 3: at least one chelating agent. Component 1: sodium chlorite, tropolone,, beta-fluorocaffeic acid, or a sulfoxylate; or a salt of the form M +- O-S(=O)-CH R; or a monobasic organic acid of sulfur having the general formula RSO 2 H; wherein M + can be a mono or multivalent cation, and wherein R = H, C 1 -C 20 alkyl, branched C 1 -C 20 alkyl, cyclic C 5 -C 6 alkyl, aryl, benzyl, or heterocyclic C 5 -C 6 rings, and wherein R can be substituted or unsubstituted; or mixtures thereof; Component 2: one or more of sulfites, metabisulfites, bisulfites, or sulfur dioxide or a source thereof; and Component 3: at least one chelating agent.
A heat-sealable adhesive tape, comprising: a hot-melt adhesive layer; and a pressure-sensitive adhesive layer adjacent to the hot-melt adhesive layer, the pressure-sensitive adhesive layer comprising a blend of: b1) at least one poly(meth)acrylate, and b2) at least one selected from an elastomeric material and a thermoplastic-elastomeric material, wherein a surface of the hot-melt adhesive adjacent to the pressure-sensitive layer is characterized by a CO 2 -corona pre-treatment. a hot-melt adhesive layer; and a pressure-sensitive adhesive layer adjacent to the hot-melt adhesive layer, the pressure-sensitive adhesive layer comprising a blend of: b1) at least one poly(meth)acrylate, and b2) at least one selected from an elastomeric material and a thermoplastic-elastomeric material, wherein a surface of the hot-melt adhesive adjacent to the pressure-sensitive layer is characterized by a CO 2 -corona pre-treatment. b1) at least one poly(meth)acrylate, and b2) at least one selected from an elastomeric material and a thermoplastic-elastomeric material, wherein a surface of the hot-melt adhesive adjacent to the pressure-sensitive layer is characterized by a CO 2 -corona pre-treatment.
A ground engaging tip for use in a tip assembly for a base edge of a ground engaging implement, wherein the tip assembly includes an adapter configured for attachment to the base edge of the ground engaging implement and having a forwardly extending adapter nose, the ground engaging tip comprising: a rear edge; a top outer surface; a bottom outer surface, wherein the top outer surface and the bottom outer surface extend forward from the rear edge of the ground engaging tip and converge at a front edge of the tip; and a nose cavity, within the ground engaging tip and defined between the converging top and bottom outer surfaces, for receiving an adapter nose of a tip assembly therein, the nose cavity including a wear indicator at a front end of the nose cavity and extending from an inner surface (84, 94, 96) of the nose cavity, into the ground engaging tip, toward the bottom outer surface of the ground engaging tip, the nose cavity further including bottom and front inner surfaces (94, 96) and first and second side inner surfaces opposite first and second side outer surfaces of the tip respectively; characterised in that the wear indicator is located at an intersection of the bottom and front inner surfaces and centrally between the first and second side inner surfaces of the nose cavity, and the wear indicator is a small opening or an area of material that is different from the surrounding material of the ground engaging tip. a rear edge; a top outer surface; a bottom outer surface, wherein the top outer surface and the bottom outer surface extend forward from the rear edge of the ground engaging tip and converge at a front edge of the tip; and a nose cavity, within the ground engaging tip and defined between the converging top and bottom outer surfaces, for receiving an adapter nose of a tip assembly therein, the nose cavity including a wear indicator at a front end of the nose cavity and extending from an inner surface (84, 94, 96) of the nose cavity, into the ground engaging tip, toward the bottom outer surface of the ground engaging tip, the nose cavity further including bottom and front inner surfaces (94, 96) and first and second side inner surfaces opposite first and second side outer surfaces of the tip respectively; characterised in that the wear indicator is located at an intersection of the bottom and front inner surfaces and centrally between the first and second side inner surfaces of the nose cavity, and the wear indicator is a small opening or an area of material that is different from the surrounding material of the ground engaging tip.
A tie-rod nut, comprising: a nut base comprising a nut bore, wherein the nut bore extends axially through the nut base between a first nut end and a second nut end, and comprises a threaded bore region, and characterised by the nut base further comprising a flow aperture, wherein the flow aperture extends radially outwards from the nut bore through the nut base; and a nut flange extending radially outwards from the nut base at the first nut end, and comprising a plurality of mounting apertures that are arranged circumferentially around the nut base and that extend axially through the nut flange; wherein the flow aperture is arranged axially between the threaded bore region and the nut flange. a nut base comprising a nut bore, wherein the nut bore extends axially through the nut base between a first nut end and a second nut end, and comprises a threaded bore region, and characterised by the nut base further comprising a flow aperture, wherein the flow aperture extends radially outwards from the nut bore through the nut base; and a nut flange extending radially outwards from the nut base at the first nut end, and comprising a plurality of mounting apertures that are arranged circumferentially around the nut base and that extend axially through the nut flange; wherein the flow aperture is arranged axially between the threaded bore region and the nut flange.
An electromagnetic relay, in which an electromagnet block, formed by winding a coil around a body of a spool with at least one side of the body provided with a guard portion (23, 24) and inserting an iron core through a through hole of the body of the spool, is mounted on the upper surface of a base such that a shaft center of the iron core is in parallel with the base, and a movable contact, provided at a free end of a movable touch piece configured to rotate based on magnetization and demagnetization of the electromagnet block, is brought into contact with or separated from a fixed contact (51, 56) of a fixed contact terminal (50, 55), wherein a press-fitting portion (52, 57) of the fixed contact terminal (50, 55) is press-fitted into a press-fitting hole (24a, 24b) provided at an edge of an outward surface of the guard portion along the shaft center of the iron core, the press-fitting portion (52, 57) extending to the lateral side from the fixed contact terminals (50, 55).
A mattress or mattress topper, comprising: a cushioning element comprising an elastomeric material forming a plurality of intersecting buckling walls defining a plurality of hollow columns, wherein the elastomeric material comprises an elastomeric polymer and a plasticizer; and a knitted fabric disposed over the cushioning element and configured to move independently of the buckling walls of the cushioning element, the knitted fabric comprising: a first layer of stretchable material; a second layer of stretchable material; and a layer of stretchable fill material between the first layer of stretchable material and the second layer of stretchable material; wherein the first layer of stretchable material is knitted together with the second layer of stretchable material as a unitary sheet of fabric including the layer of stretchable fill material; wherein the knitted fabric consists essentially of materials exhibiting stretchiness in at least two directions perpendicular to one another; wherein the fabric exhibits stretchiness in at least two directions perpendicular to one another. a cushioning element comprising an elastomeric material forming a plurality of intersecting buckling walls defining a plurality of hollow columns, wherein the elastomeric material comprises an elastomeric polymer and a plasticizer; and a knitted fabric disposed over the cushioning element and configured to move independently of the buckling walls of the cushioning element, the knitted fabric comprising: a first layer of stretchable material; a second layer of stretchable material; and a layer of stretchable fill material between the first layer of stretchable material and the second layer of stretchable material; wherein the first layer of stretchable material is knitted together with the second layer of stretchable material as a unitary sheet of fabric including the layer of stretchable fill material; wherein the knitted fabric consists essentially of materials exhibiting stretchiness in at least two directions perpendicular to one another; wherein the fabric exhibits stretchiness in at least two directions perpendicular to one another. a first layer of stretchable material; a second layer of stretchable material; and a layer of stretchable fill material between the first layer of stretchable material and the second layer of stretchable material; wherein the first layer of stretchable material is knitted together with the second layer of stretchable material as a unitary sheet of fabric including the layer of stretchable fill material; wherein the knitted fabric consists essentially of materials exhibiting stretchiness in at least two directions perpendicular to one another; wherein the fabric exhibits stretchiness in at least two directions perpendicular to one another.
A method (200, 200') for generating a resolution adaptive mesh for 3-D metrology of an object, comprising: receiving point cloud data from a plurality of sensors (106a -106n), the point cloud data from each sensor defining a point cloud that represents the object, wherein each point cloud comprises a multiplicity of points and each point comprises at least location information for the point on the object; determining a resolution of each sensor in each of three orthogonal dimensions based on a position of each sensor relative to the object and physical properties of each sensor, wherein receiving the point cloud data comprises receiving the point cloud from each sensor and an uncertainty ellipsoid (404a-404c) for each point, wherein the uncertainty ellipsoids are used to determine the resolutions of each sensor based on the position of the sensor relative to the object; assigning each point to a closest mesh triangle of a triangular mesh, the triangular mesh comprising a multiplicity of mesh triangles (602a-602n) that collectively represent a surface of the object; fitting the triangular mesh to the point cloud by adjusting the mesh vertices (606a - 606c) of each assigned mesh triangle (602a - 602n) to minimize the mean distance (di) of points in the point cloud from their closest mesh triangles (602a - 602n), weighted by the inverse square of the position-dependent sensor resolution in the direction towards the closest point on the assigned mesh triangle (602a - 602n). receiving point cloud data from a plurality of sensors (106a -106n), the point cloud data from each sensor defining a point cloud that represents the object, wherein each point cloud comprises a multiplicity of points and each point comprises at least location information for the point on the object; determining a resolution of each sensor in each of three orthogonal dimensions based on a position of each sensor relative to the object and physical properties of each sensor, wherein receiving the point cloud data comprises receiving the point cloud from each sensor and an uncertainty ellipsoid (404a-404c) for each point, wherein the uncertainty ellipsoids are used to determine the resolutions of each sensor based on the position of the sensor relative to the object; assigning each point to a closest mesh triangle of a triangular mesh, the triangular mesh comprising a multiplicity of mesh triangles (602a-602n) that collectively represent a surface of the object; fitting the triangular mesh to the point cloud by adjusting the mesh vertices (606a - 606c) of each assigned mesh triangle (602a - 602n) to minimize the mean distance (di) of points in the point cloud from their closest mesh triangles (602a - 602n), weighted by the inverse square of the position-dependent sensor resolution in the direction towards the closest point on the assigned mesh triangle (602a - 602n).
A system for analysis of the upper airway, comprising: a passageway for communication with a user's airway; a first acoustic sensor positioned at a first location with respect to the passageway; a second acoustic sensor positioned at a second location with respect to the passageway; and a processor adapted to derive a parameter from the relation between the two sensor signals, which parameter varies in dependence on the presence of an upper airway obstruction, wherein the processor, to derive said parameter, is adapted to process sound signals which comprise only ambient noise received from noise sources external to the analysis system, and noise generated by the user, wherein the processor, to derive said parameter, is further adapted to derive the transfer function (H ab) between the acoustic signals at the first acoustic sensor and the second acoustic sensor, and to derive the parameter in the form of an acoustic impedance from the acoustic transfer function (H ab). a passageway for communication with a user's airway; a first acoustic sensor positioned at a first location with respect to the passageway; a second acoustic sensor positioned at a second location with respect to the passageway; and a processor adapted to derive a parameter from the relation between the two sensor signals, which parameter varies in dependence on the presence of an upper airway obstruction, wherein the processor, to derive said parameter, is adapted to process sound signals which comprise only ambient noise received from noise sources external to the analysis system, and noise generated by the user, wherein the processor, to derive said parameter, is further adapted to derive the transfer function (H ab) between the acoustic signals at the first acoustic sensor and the second acoustic sensor, and to derive the parameter in the form of an acoustic impedance from the acoustic transfer function (H ab).
A method (600; 602) for managing control of an unmanned aircraft, UA, characterized by: receiving, by a server (240; 900), an indication from a UA in autonomous flight that a transition from autonomous flight to pilot controlled flight is required; and selecting, by the server (240; 900), a pilot station for providing pilot controlled flight of the UA based on a pilot criteria. receiving, by a server (240; 900), an indication from a UA in autonomous flight that a transition from autonomous flight to pilot controlled flight is required; and selecting, by the server (240; 900), a pilot station for providing pilot controlled flight of the UA based on a pilot criteria.
A calibrating device for calibrating extruded endless profiles, in particular pipes, with a calibrating aperture which is formed by a plurality of segments arranged circumferentially and axially adjacent one behind the other, the interior surfaces of which jointly form the calibrating aperture, characterized in that - the individual segments, arranged axially adjacent one behind the other, form respectively a one-piece segment body, - the segment bodies are produced respectively from a workpiece and comprise no individual lamellae in a row, or that structures are worked into the interior surface of the segment body so that lamella-like projections are formed on the interior side, in one piece with the segment body, - the segment bodies are received in a substantially circular manner in a housing (12, 14), such that axially adjacent segments partially overlap one another in circumferential direction for the formation of the calibrating aperture, - each segment body is connected to at least one actuating device, by means of which the individual segment bodies are retained in the housing (12, 14) and a displacement of each individual segment body is able to be carried out in radial direction and - that the segment bodies have on the interior side a contour for the formation of the calibrating aperture. - the individual segments, arranged axially adjacent one behind the other, form respectively a one-piece segment body, - the segment bodies are produced respectively from a workpiece and comprise no individual lamellae in a row, or that structures are worked into the interior surface of the segment body so that lamella-like projections are formed on the interior side, in one piece with the segment body, - the segment bodies are received in a substantially circular manner in a housing (12, 14), such that axially adjacent segments partially overlap one another in circumferential direction for the formation of the calibrating aperture, - each segment body is connected to at least one actuating device, by means of which the individual segment bodies are retained in the housing (12, 14) and a displacement of each individual segment body is able to be carried out in radial direction and - that the segment bodies have on the interior side a contour for the formation of the calibrating aperture.
A device for determining the position of objects, in particular moving objects, comprising - at least two switchable transmitting antennas, - a plurality of receiving antennas, - the transmitting antennas and receiving antennas respectively extending longitudinally, parallel to one another, in a first direction (y), and the receiving antennas being arranged in a row and the row extending in a second direction (x), adjacent receiving antennas respectively being spaced apart from one another by a distance d 2, characterized in that the transmitting antennas being offset from one another in relation to the first direction (y) and being spaced apart from one another by a distance d in relation to the second direction (x), and the distance d 2 between adjacent receiving antennas being at least twice as great as the distance d between the transmitting antennas. - at least two switchable transmitting antennas, - a plurality of receiving antennas, - the transmitting antennas and receiving antennas respectively extending longitudinally, parallel to one another, in a first direction (y), and the receiving antennas being arranged in a row and the row extending in a second direction (x), adjacent receiving antennas respectively being spaced apart from one another by a distance d 2,