mhurhangee/ep-ind-claims huggingface dataset:
A device for lifting an item or part thereof having spaced apart wheels, comprising: - a main body including a first axis extending through a front and rear of said main body; - two wheel engagement attachments associated with said main body and each configured to support spaced apart first and second wheels of said item during lifting, each attachment being moveable with respect to said body along a second axis which extends substantially perpendicular to said first axis, wherein engagement occurs when the attachments and wheels are first aligned along said second axis or an axis parallel thereto, and the attachments then moved towards respective wheels until the attachments and wheels are substantially aligned along said first axis or an axis parallel thereto; and - a means of lifting said wheel engagement attachments from a ground surface, characterised by: - each wheel engagement attachment being slidably moveable in equal and opposite directions along a guide disposed at the front of the main body and extending along said second axis or an axis parallel thereto; and - each wheel engagement attachment being associated with a toothed rack (84, 86) respectively, each rack (84, 86), being in meshed engagement with a driven spur gear associated with said guide, whereby rotation of said spur gear in one direction causes the attachments to move away from one another at constant rate, and rotation in the opposite direction causes the attachments to move toward one another at a constant rate. - a main body including a first axis extending through a front and rear of said main body; - two wheel engagement attachments associated with said main body and each configured to support spaced apart first and second wheels of said item during lifting, each attachment being moveable with respect to said body along a second axis which extends substantially perpendicular to said first axis, wherein engagement occurs when the attachments and wheels are first aligned along said second axis or an axis parallel thereto, and the attachments then moved towards respective wheels until the attachments and wheels are substantially aligned along said first axis or an axis parallel thereto; and - a means of lifting said wheel engagement attachments from a ground surface, - each wheel engagement attachment being slidably moveable in equal and opposite directions along a guide disposed at the front of the main body and extending along said second axis or an axis parallel thereto; and - each wheel engagement attachment being associated with a toothed rack (84, 86) respectively, each rack (84, 86), being in meshed engagement with a driven spur gear associated with said guide, whereby rotation of said spur gear in one direction causes the attachments to move away from one another at constant rate, and rotation in the opposite direction causes the attachments to move toward one another at a constant rate.
A method of forming a bi-polar electrode having ion exchange polymers on opposite faces of a porous substrate, the method comprising: providing an electrode substrate with activated carbon layers (13A,13B), said electrode substrate having a first side and a second side, said first side having a first face and said second side having a second face, said first side and second side are opposite; characterized in that said first face and said second face each have an outer perimeter band void of the activated carbon layers; providing a first gasket to the outer perimeter band of the first face, and a second gasket to the outer perimeter band of the second face; clamping the electrode substrate between two rigid plates (18A,18B) to form a first air-tight chamber on the first side of the electrode substrate and a second air-tight chamber on the second side of the electrode substrate; adding a first polymerizable monomer mixture into the first air-tight chamber, the first polymerizable monomer mixture comprising a polymerizable monomer having an anion exchange group or a group that can be converted to an anion exchange group; adding a second polymerizable monomer mixture into the second air-tight chamber, the second polymerizable monomer mixture comprising a polymerizable monomer having a cation exchange group or a group that can be converted to the cation exchange group; and polymerizing the first and second polymerizable monomer mixtures. providing an electrode substrate with activated carbon layers (13A,13B), said electrode substrate having a first side and a second side, said first side having a first face and said second side having a second face, said first side and second side are opposite; characterized in that said first face and said second face each have an outer perimeter band void of the activated carbon layers; providing a first gasket to the outer perimeter band of the first face, and a second gasket to the outer perimeter band of the second face; clamping the electrode substrate between two rigid plates (18A,18B) to form a first air-tight chamber on the first side of the electrode substrate and a second air-tight chamber on the second side of the electrode substrate; adding a first polymerizable monomer mixture into the first air-tight chamber, the first polymerizable monomer mixture comprising a polymerizable monomer having an anion exchange group or a group that can be converted to an anion exchange group; adding a second polymerizable monomer mixture into the second air-tight chamber, the second polymerizable monomer mixture comprising a polymerizable monomer having a cation exchange group or a group that can be converted to the cation exchange group; and polymerizing the first and second polymerizable monomer mixtures.
A gas-hydraulic device for damping compressive forces, wherein the device comprises the following: - an outer cylinder; - an inner cylinder displaceably disposed within the outer cylinder, wherein a valve assembly is configured in the front end region of the inner cylinder such that a hydraulic chamber configured in the outer cylinder is divided into a rear hydraulic chamber (13.1) and a front hydraulic chamber (13.2); and - a sleeve which is connectable to the outer cylinder and configured such that the inner cylinder is displaceable toward a center longitudinal axis of the device within an area formed by the sleeve and by the outer cylinder connectable to the sleeve, wherein the volume enclosed by the inner cylinder, the outer cylinder and the sleeve defines a working stroke of the device which is proportional to the maximum energy consumption of the device, wherein the volume is variable by means of the sleeve, and wherein the outer cylinder only extends over a first part of the inner cylinder, characterized in that the sleeve extends over a second part of the inner cylinder and thus provides guidance for the inner cylinder within the outer cylinder or sleeve respectively, wherein the first part of the inner cylinder is smaller than the second part of the inner cylinder. - an outer cylinder; - an inner cylinder displaceably disposed within the outer cylinder, wherein a valve assembly is configured in the front end region of the inner cylinder such that a hydraulic chamber configured in the outer cylinder is divided into a rear hydraulic chamber (13.1) and a front hydraulic chamber (13.2); and - a sleeve which is connectable to the outer cylinder and configured such that the inner cylinder is displaceable toward a center longitudinal axis of the device within an area formed by the sleeve and by the outer cylinder connectable to the sleeve,
Arrangement for galvanically separated energy transmission with voltages in the high-voltage range, comprising a dielectric waveguide having a signal input, a first decoupling point and a second decoupling point, configured such that energy is transmitted via the dielectric waveguide, wherein the decoupling arrangement of the first decoupling point and/or the clearance of the first decoupling point to the signal input of the waveguide, and the decoupling arrangement of the second decoupling point and/or the clearance of the second decoupling point to the signal input of the waveguide are mutually variable, such that the value of power tapped at the first and second decoupling point is equal, wherein the arrangement moreover comprises a first rectifier device and at least one second rectifier device, and wherein the dielectric waveguide has a functional connection to the at least one first rectifier device and the at least one second rectifier device, such that the first rectifier device, on its input side, has a conductive connection along the length of the dielectric waveguide to the first decoupling point which is located along the length of the waveguide, and the second rectifier device, on its input side, has a conductive connection to the second decoupling point which is located along the length of the waveguide, arranged with a clearance to the signal input of the waveguide and with a mutual clearance, and wherein the functional connection is configured in the form of holes or slots arranged within the clearance and designed for the decoupling of power and/or conductive structures fitted to the decoupling point.
A method for controlling a camera unit to generate a processed digital image represented by a plurality of image pixels, the method comprising: receiving raw color image data representing an image exposed by an image sensor, the raw color image data generated by a plurality of raw image pixels of the image sensor; receiving supplemental image data representing at least one characteristic of an ambient light of the scene image, the supplemental image data being different from the raw color image data and generated by a plurality of dummy pixels of the image sensor other than the raw image pixels, wherein at least one dummy pixel has a different spectral sensitivity than the raw image pixels, the spectral sensitivity including sensitivities outside the visible light spectrum; determining a measurement of the at least one characteristic of the ambient light based on the supplemental image data and on a selected mode of operation of the image sensor processor; and processing the raw color image data in an image sensor processor of the camera unit, said processing comprising using the supplemental image data to adjust at least one image attribute of the raw color image data based on the measurement of the at least one characteristic of the ambient light to generate the processed digital image, the at least one image attribute being adjusted differently for different modes of operation selected. receiving raw color image data representing an image exposed by an image sensor, the raw color image data generated by a plurality of raw image pixels of the image sensor; receiving supplemental image data representing at least one characteristic of an ambient light of the scene image, the supplemental image data being different from the raw color image data and generated by a plurality of dummy pixels of the image sensor other than the raw image pixels, wherein at least one dummy pixel has a different spectral sensitivity than the raw image pixels, the spectral sensitivity including sensitivities outside the visible light spectrum; determining a measurement of the at least one characteristic of the ambient light based on the supplemental image data and on a selected mode of operation of the image sensor processor; and processing the raw color image data in an image sensor processor of the camera unit, said processing comprising using the supplemental image data to adjust at least one image attribute of the raw color image data based on the measurement of the at least one characteristic of the ambient light to generate the processed digital image, the at least one image attribute being adjusted differently for different modes of operation selected.
A frame with an annular fixing structure for receiving an electric engine driving a fan and having a circumferentially disposed electrical connection in a position mounted on the frame, wherein the fixing structure has a bridge-like offset bend in the region of the connection which bridges the electrical connection when the electric engine is mounted on the frame, characterised in that the fixing structure and the offset bend are formed as a closed ring structure.
A fuel tank produced by joining of at least two discrete parts of a tank and each having a laminate structure comprising - a fluororesin layer (i) of a fluororesin containing an adhesive functional group and - a thermoplastic resin layer (ii) having a two-layer structure consisting of a polyolefin resin layer and a modified polyolefin resin layer, or a three-layer structure consisting of a polyolefin resin layer/modified polyolefin resin layer/polyamide resin layer, wherein at least the layers (i) of the parts being joined together to form the inner surface layer of the fuel tank. - a fluororesin layer (i) of a fluororesin containing an adhesive functional group and - a thermoplastic resin layer (ii) having a two-layer structure consisting of a polyolefin resin layer and a modified polyolefin resin layer, or a three-layer structure consisting of a polyolefin resin layer/modified polyolefin resin layer/polyamide resin layer,
The floor structure, which is positioned on the dumper chassis in the box type dumper trucks, and forms the floor of the dumper vessel where the load to be transported is stored; and connected with the elastic wedge placed on mentioned dumper chassis, and absorbs the vibrations to be transmitted to the dumper vessel, wherein it comprises; • The solid floor panel, which is extended crosswise on the dumper vessel ground, and having been positioned and combined side by side throughout all the floor, forms the floor structure of the dumper vessel, • The floor profile, which interconnects mentioned floor panels, and by connecting it with the elastic wedge, positioned on the dumper chassis, • wherein said floor panel comprises the floor panel side section, which is the section where it is combined with the floor profile, and on which the interlocking elements are formed, characterised in that said floor profile comprises the central flexion discharge, which is formed in the floor panel side sections in order to make sure that it carries out an elastic flexion under effect of the force it applies to the floor panel, thus it is intertwined, and to reduce the profile section weight. • The solid floor panel, which is extended crosswise on the dumper vessel ground, and having been positioned and combined side by side throughout all the floor, forms the floor structure of the dumper vessel, • The floor profile, which interconnects mentioned floor panels, and by connecting it with the elastic wedge, positioned on the dumper chassis, • wherein said floor panel comprises the floor panel side section, which is the section where it is combined with the floor profile, and on which the interlocking elements are formed,
Device for dropping fragile products comprising: - a storage means of said products, comprising a discharge means of said products, - a distribution means of the fragile products comprising at least one cavity (1a, 1b, 10a, 10b) provided at the surface of a support (2, 20), the support being capable of taking at least two positions, a first position wherein the at least one cavity is located facing and at a distance of said discharge means and can be filled with fragile products, and a second position wherein said cavity is spaced apart from said discharge means and can be emptied, - a flexible means of communication of the discharge means with said at least one cavity of the support in order to fill said cavity with fragile products, characterised in that said communication means defines a volume connecting the discharge means and the support. - a storage means of said products, comprising a discharge means of said products, - a distribution means of the fragile products comprising at least one cavity (1a, 1b, 10a, 10b) provided at the surface of a support (2, 20), the support being capable of taking at least two positions, a first position wherein the at least one cavity is located facing and at a distance of said discharge means and can be filled with fragile products, and a second position wherein said cavity is spaced apart from said discharge means and can be emptied, - a flexible means of communication of the discharge means with said at least one cavity of the support in order to fill said cavity with fragile products,
A coffee bean package, provided with at least one circumferential wall, a top wall, a bottom, and a coffee bean outlet, near the bottom, with the walls and bottom enclosing an inner space, a first coupling part (12, 24) for coupling, and uncoupling, the coffee bean package with an apparatus provided with a grinder, and reclosable closing means preventing coffee beans in the coffee bean package being exposed to ambient air, wherein the bottom is provided with at least one tapering wall part so that in a condition coupled with an upstanding apparatus, coffee beans flow automatically towards the coffee bean outlet under the influence of gravity, wherein the closing means are provided with a second coupling part for coupling and uncoupling with the apparatus, wherein the closing means are provided with a sloping top so that coffee beans on the top side slide down along the closing means, wherein the first coupling part (12, 24) is provided near the coffee bean outlet, characterized in that the coffee bean package has approximately a bottle shape, in that the first coupling part is provided on the neck of the package, and in that the first coupling part and the second coupling part are arranged as parts of a bayonet closure.
A robotic system comprising: a base (110, 710, 906A, 906B, 906C, 1002, 1102) movable relative to a floor surface; a remotely controllable arm (106, 904A, 904B, 904C, 1004, 1100) extending from the base (110, 710, 906A, 906B, 906C, 1002, 1102) and configured to support and move a tool (108, 704, 934B, 934C, 1006), the arm (106, 904A, 904B, 904C, 1004, 1100) having a powered joint (114, 706, 914A) operable to move a distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100); a sensor configured to generate a signal in response to detecting that a position of the distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100) is fixed relative to a reference; and a processor configured to: detect the signal, and drive the powered joint (114, 706, 914A) to reposition the base (110, 710, 906A, 906B, 906C, 1002, 1102) in response to detecting the signal and while the position of the distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100) is fixed relative to the reference. a base (110, 710, 906A, 906B, 906C, 1002, 1102) movable relative to a floor surface; a remotely controllable arm (106, 904A, 904B, 904C, 1004, 1100) extending from the base (110, 710, 906A, 906B, 906C, 1002, 1102) and configured to support and move a tool (108, 704, 934B, 934C, 1006), the arm (106, 904A, 904B, 904C, 1004, 1100) having a powered joint (114, 706, 914A) operable to move a distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100); a sensor configured to generate a signal in response to detecting that a position of the distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100) is fixed relative to a reference; and a processor configured to: detect the signal, and drive the powered joint (114, 706, 914A) to reposition the base (110, 710, 906A, 906B, 906C, 1002, 1102) in response to detecting the signal and while the position of the distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100) is fixed relative to the reference. detect the signal, and drive the powered joint (114, 706, 914A) to reposition the base (110, 710, 906A, 906B, 906C, 1002, 1102) in response to detecting the signal and while the position of the distal portion of the arm (106, 904A, 904B, 904C, 1004, 1100) is fixed relative to the reference.
A laser diode, comprising: a substrate; a first conductive-type clad layer disposed above the substrate; a second conductive-type clad layer disposed over the first conductive-type clad layer; an active layer interposed between the first and second clad layers (35, 41); the first clad layer, the active layer and the second clad layer forming a mesa with the first clad layer having a width larger than the width of a ridge formed on the second clad layer, and a pattern of nano-scale columns periodically arranged at a surface of the second conductive-type clad layer, wherein the nano-scale columns are column-shaped protrusions or recesses, each of which having a cross sectional area below 1 μm 2, wherein the respective nano-scale columns are formed in a circular-column shape having a diameter and wherein the outer surfaces of the nano-scale columns are spaced apart from one another at the same interval as the diameter, characterized in that the nano-scale columns are arranged at a surface of and through the whole length of the ridge. a substrate; a first conductive-type clad layer disposed above the substrate; a second conductive-type clad layer disposed over the first conductive-type clad layer; an active layer interposed between the first and second clad layers (35, 41); the first clad layer, the active layer and the second clad layer forming a mesa with the first clad layer having a width larger than the width of a ridge formed on the second clad layer, and a pattern of nano-scale columns periodically arranged at a surface of the second conductive-type clad layer, wherein the nano-scale columns are column-shaped protrusions or recesses, each of which having a cross sectional area below 1 μm 2, wherein the respective nano-scale columns are formed in a circular-column shape having a diameter and wherein the outer surfaces of the nano-scale columns are spaced apart from one another at the same interval as the diameter, characterized in that the nano-scale columns are arranged at a surface of and through the whole length of the ridge.
A terminal device comprising means (1100, 1102, 1104, 1106) configured to: establish a first radio resource connection with a Radio Access Network, RAN, node, the first radio resource connection having a first Radio Network Temporary Identifier and being associated with a first subscription identity used by the terminal device to register in a network; perform a radio resource connection setup procedure for establishing a second radio resource connection with the RAN node, the second radio resource connection being associated with a second subscription identity used by the terminal device to register in the network; indicate, to the RAN node, that the terminal device has an existing radio resource connection with the RAN node; receive, from the RAN node, a second Radio Network Temporary Identifier associated with the second radio resource connection and an additional Radio Network Temporary Identifier common to the first and second radio resource connections; and use the common Radio Network Temporary Identifier for communication with the RAN node. establish a first radio resource connection with a Radio Access Network, RAN, node, the first radio resource connection having a first Radio Network Temporary Identifier and being associated with a first subscription identity used by the terminal device to register in a network; perform a radio resource connection setup procedure for establishing a second radio resource connection with the RAN node, the second radio resource connection being associated with a second subscription identity used by the terminal device to register in the network; indicate, to the RAN node, that the terminal device has an existing radio resource connection with the RAN node; receive, from the RAN node, a second Radio Network Temporary Identifier associated with the second radio resource connection and an additional Radio Network Temporary Identifier common to the first and second radio resource connections; and use the common Radio Network Temporary Identifier for communication with the RAN node.