mhurhangee/ep-ind-claims huggingface dataset:
An assembly tool for connecting fastening elements to at least one component, having a marking device which is designed, - upon ending a first connection operation, to provide a fastening element with a first type of marking, and - upon ending a second connection operation, to provide a further fastening element with a second type of marking, characterised in that the marking device has at least two marking units (31, 32) which are designed to produce markings which are different from each other. - upon ending a first connection operation, to provide a fastening element with a first type of marking, and - upon ending a second connection operation, to provide a further fastening element with a second type of marking,
A method of performing a lateral flow immunoassay using one or more lateral flow test strips, the method comprising: preheating the or each test strip; mixing an analyte with a buffer liquid; causing the mixed liquid to flow into an incubation chamber containing or receiving a reagent; and causing at least a part of the or each test strip to come into contact with the fluid in the chamber, resulting in the lateral flow immunoassay being initiated. preheating the or each test strip; mixing an analyte with a buffer liquid; causing the mixed liquid to flow into an incubation chamber containing or receiving a reagent; and causing at least a part of the or each test strip to come into contact with the fluid in the chamber, resulting in the lateral flow immunoassay being initiated.
A method for functional testing of a gas sensor in a measuring gas space, wherein as a gas sensor a structure is used with a solid electrolyte separating the measuring gas space from a reference gas space, the structure further having a first and a second measuring electrode (7, 8), both of which are mounted on the measurement gas side of the solid electrolyte, and a reference electrode, which is applied to the reference gas side of the solid electrolyte, wherein a first measuring voltage can be detected between the first measuring electrode and the reference electrode, which first measuring voltage depends on the ratio of the partial pressures of a first gas constituent at the measuring gas side and at the reference gas side, wherein a second measuring voltage is detectable between the second measuring electrode and the reference electrode, which second measuring voltage depends on the partial pressure of one or more gas constituents of the measuring gas, characterized in that - in a first step, a stationary ratio of the partial pressures of the gas components leading to the formation of the measuring voltages in the measuring gas and in the reference gas is brought about, - in a second step a voltage is applied between the reference electrode and one of the two measuring electrodes (8, 7) which is so high that it causes an electrochemical reaction at the respective measuring electrode (8, 7), as a consequence of which the partial pressure of at least one gas constituent leading to the formation of the measuring voltage at the other of the two measuring electrodes (7, 8) changes in the measuring gas and in the reference gas relative to the stationary output ratio, and - In a third step, a change in the measuring voltage forming between the reference electrode and the other measuring electrode (7,8) is used for assessing the functionality of the gas sensor. - in a first step, a stationary ratio of the partial pressures of the gas components leading to the formation of the measuring voltages in the measuring gas and in the reference gas is brought about, - in a second step a voltage is applied between the reference electrode and one of the two measuring electrodes (8, 7) which is so high that it causes an electrochemical reaction at the respective measuring electrode (8, 7), as a consequence of which the partial pressure of at least one gas constituent leading to the formation of the measuring voltage at the other of the two measuring electrodes (7, 8) changes in the measuring gas and in the reference gas relative to the stationary output ratio, and - In a third step, a change in the measuring voltage forming between the reference electrode and the other measuring electrode (7,8) is used for assessing the functionality of the gas sensor.
A method for manufacturing fire-retardant insulating boards/mats, wherein the insulating boards/mats are produced from a mixture containing fibres based on renewable raw materials and a physical and/or a chemical flame retardant, characterized in that as an insulating board/mat, a wood fibre insulating board is produced from the mixture by a wet process with a thickness in the range from 4 to 250 mm and a density in the range from 80 to 250 kg/m 3 or a wood fibre insulating board is produced from the mixture by a dry process with a thickness in the range from 10 to 300 mm and a density in the range from 80 to 300 kg/m 3 or a flexible wood fibre insulating mat is produced from the mixture by a dry process with a thickness in the range from 10 to 400 mm and a density in the range from 35 to 80 kg/m 3, wherein the wet process is carried out by stirring the fibres with water to form a slurry, adding additives and the flame retardant to the slurry, forming the slurry into a pressed fibre mat, dewatering the pressed fibre mat, cutting the pressed fibre mat to size and drying the pressed fibre mat blank, the drying process is carried out by producing a dispersion from the fibres, the flame retardant and a binder and/or further additives, pressing the dispersion to form insulating boards/mats and curing the insulating boards/mats, and the flame retardant is an intumescent flame retardant or comprises an intumescent flame retardant component. characterized in that as an insulating board/mat, a wood fibre insulating board is produced from the mixture by a wet process with a thickness in the range from 4 to 250 mm and a density in the range from 80 to 250 kg/m 3 or a wood fibre insulating board is produced from the mixture by a dry process with a thickness in the range from 10 to 300 mm and a density in the range from 80 to 300 kg/m 3 or a flexible wood fibre insulating mat is produced from the mixture by a dry process with a thickness in the range from 10 to 400 mm and a density in the range from 35 to 80 kg/m 3, wherein the wet process is carried out by stirring the fibres with water to form a slurry, adding additives and the flame retardant to the slurry, forming the slurry into a pressed fibre mat, dewatering the pressed fibre mat, cutting the pressed fibre mat to size and drying the pressed fibre mat blank, the drying process is carried out by producing a dispersion from the fibres, the flame retardant and a binder and/or further additives, pressing the dispersion to form insulating boards/mats and curing the insulating boards/mats, and the flame retardant is an intumescent flame retardant or comprises an intumescent flame retardant component.
A surface cleaning appliance comprising: a cleaner head (3, 5) comprising an agitator (10, 12) and a motor (11, 13) for driving the agitator(3, 5); a switch coupling the motor (11, 13) to a supply voltage; a voltage sensor for measuring the magnitude of the supply voltage; a current sensor for measuring the magnitude of current through the motor (11, 13); and a controller configured to output a PWM signal for controlling the switch, characterized in that the controller adjusts the duty cycle of the PWM signal in response to changes in the supply voltage and in response to changes in the current through the motor (11, 13). a cleaner head (3, 5) comprising an agitator (10, 12) and a motor (11, 13) for driving the agitator(3, 5); a switch coupling the motor (11, 13) to a supply voltage; a voltage sensor for measuring the magnitude of the supply voltage; a current sensor for measuring the magnitude of current through the motor (11, 13); and a controller configured to output a PWM signal for controlling the switch, characterized in that the controller adjusts the duty cycle of the PWM signal in response to changes in the supply voltage and in response to changes in the current through the motor (11, 13).
Commercial-vehicle tyre of radial construction, having a tread, an inner layer, sidewalls, a carcass insert and a belt assembly, arranged between the tread and the carcass insert, which has at least three belt plies (2a, 2b, 2c, 2d), wherein in each case a plurality of shoulder blocks (6, 7, 8) arranged radially one on top of another are provided in the shoulder regions, said shoulder blocks (6, 7, 8) extending into the region of the belt edges, characterized in that in each case three shoulder blocks (6, 7, 8) are arranged in the shoulder regions of the tread, said shoulder blocks (6, 7, 8) having corresponding or substantially corresponding storage moduli according to DIN 53513, wherein the storage modulus of each shoulder block (6, 7, 8) is at least 7.0 MPa and at most 10.0 MPa.
A method for processing video data streams for an area, the method comprising: identifying a number of objects in the area from images in the video data streams for the area, wherein the video data streams are generated by cameras; identifying a first number of locations for the number of objects using the images in the video data streams, wherein the first number of locations is defined using a coordinate system for the images; forming a number of graphical representations for the number of objects using the images in the video data streams generated by the cameras; and displaying the number of graphical representations for the number of objects in a second number of locations in a model of the area on a display system with respect to a number of features in the area that is represented in the model, wherein the second number of locations is defined using a geographic coordinate system for the model and a first location in the first number of locations for an object in the number of objects corresponds to a second location in the second number of locations for a corresponding graphical representation in the number of graphical representations, wherein each graphical representation of the number of graphical representations is an icon, each icon selectable by the user to display information about the object of the number of objects that is represented by the selected icon. identifying a number of objects in the area from images in the video data streams for the area, wherein the video data streams are generated by cameras; identifying a first number of locations for the number of objects using the images in the video data streams, wherein the first number of locations is defined using a coordinate system for the images; forming a number of graphical representations for the number of objects using the images in the video data streams generated by the cameras; and displaying the number of graphical representations for the number of objects in a second number of locations in a model of the area on a display system with respect to a number of features in the area that is represented in the model, wherein the second number of locations is defined using a geographic coordinate system for the model and a first location in the first number of locations for an object in the number of objects corresponds to a second location in the second number of locations for a corresponding graphical representation in the number of graphical representations, wherein each graphical representation of the number of graphical representations is an icon, each icon selectable by the user to display information about the object of the number of objects that is represented by the selected icon.
A lightening filling body for concrete floor and ceiling slabs, this body being made up of a hollow piece which has a general configuration with spheroidal shape, with a perimeter portion and central upper and lower portions, the lightening filling body comprising: • a positioning element (5,6) formed in the lower portion; • a positioning element (5, 6) formed in the upper portion; • a set of spacing support ribs for the metal reinforcements of the slab, which are arranged in a super-elevated position in respect of the surface of the filling body; the lightening filling body being characterized by also comprising: a positioning body formed of a set of super-elevated wedges of the support ribs at the end closest to the centre of the upper and lower portions respectively, of said lightening filling body. • a positioning element (5,6) formed in the lower portion; • a positioning element (5, 6) formed in the upper portion; • a set of spacing support ribs for the metal reinforcements of the slab, which are arranged in a super-elevated position in respect of the surface of the filling body;
A semiconductor device, comprising: a leadframe comprising a die paddle integral with a first set of leads, and a second set of leads electrically isolated from the first set of leads; a semiconductor die having a first surface positioned on, and electrically connected to, the die paddle; a layer of conductive material on a second surface of the semiconductor die opposite the first surface; a plurality of electrically conductive wires extending across the second surface of the semiconductor die, in electrical contact with the conductive layer, and interconnecting corresponding ones of the second set of leads, wherein the plurality of electrical conductive wires are in contact with the layer of conductive material continuously throughout a region of the layer between opposite sides of the semiconductor die, characterised in that mutually adjacent wire ends are bonded to corresponding ones of the second set of leads by ball and wedge bonds, respectively. a leadframe comprising a die paddle integral with a first set of leads, and a second set of leads electrically isolated from the first set of leads; a semiconductor die having a first surface positioned on, and electrically connected to, the die paddle; a layer of conductive material on a second surface of the semiconductor die opposite the first surface; a plurality of electrically conductive wires extending across the second surface of the semiconductor die, in electrical contact with the conductive layer, and interconnecting corresponding ones of the second set of leads, wherein the plurality of electrical conductive wires are in contact with the layer of conductive material continuously throughout a region of the layer between opposite sides of the semiconductor die,
A system comprising: a plurality of radio frequency generators; a plurality of impedance match modules; a plurality of electrode plates, first and second impedance match modules of the plurality of impedance match modules electrically coupled between respective first and second RF generators of the plurality of RF generators and respective first and second electrode plates of the plurality of electrode plates; characterised in that the system comprises a conveyor including a ground electrode, wherein, when a load at a start temperature is to be placed on the conveyor, the system uses RF signals generated by the plurality of RF generators to cause the load to be at an end temperature different from the start temperature, wherein the conveyor is to position the load to electrically couple to the first electrode plate during a first time period and the first impedance match module is associated with a first range of temperatures between the start and end temperatures, and wherein the conveyor is to position the load to electrically couple to the second electrode plate during a second time period and the second impedance match module is associated with a second range of temperatures between the start and end temperatures that is different from the first range of temperatures. a plurality of radio frequency generators; a plurality of impedance match modules; a plurality of electrode plates, first and second impedance match modules of the plurality of impedance match modules electrically coupled between respective first and second RF generators of the plurality of RF generators and respective first and second electrode plates of the plurality of electrode plates; characterised in that the system comprises a conveyor including a ground electrode, wherein, when a load at a start temperature is to be placed on the conveyor, the system uses RF signals generated by the plurality of RF generators to cause the load to be at an end temperature different from the start temperature, wherein the conveyor is to position the load to electrically couple to the first electrode plate during a first time period and the first impedance match module is associated with a first range of temperatures between the start and end temperatures, and wherein the conveyor is to position the load to electrically couple to the second electrode plate during a second time period and the second impedance match module is associated with a second range of temperatures between the start and end temperatures that is different from the first range of temperatures.
A resonant inverter including: an input for supply of current from a DC power source, a resonant circuit including two electrically coupled inductive elements (205, 206) and a tuning capacitance, the inductive elements (205, 206) being arranged to split current from the power source; a first switching means comprising two switching devices operable in substantially opposite phase to alternately switch current from the power source into the inductive elements (205, 206); characterised by a second switching means (310A, 310B) to selectively switch one or more control capacitances into or out of the resonant circuit dependent on a power factor of the resonant circuit. an input for supply of current from a DC power source, a resonant circuit including two electrically coupled inductive elements (205, 206) and a tuning capacitance, the inductive elements (205, 206) being arranged to split current from the power source; a first switching means comprising two switching devices operable in substantially opposite phase to alternately switch current from the power source into the inductive elements (205, 206); characterised by a second switching means (310A, 310B) to selectively switch one or more control capacitances into or out of the resonant circuit dependent on a power factor of the resonant circuit.
Work equipment for a work vehicle, wherein the work equipment comprises: a first boom, a second boom attachable to the first boom, a plurality of first service lines provided on the first boom, a plurality of second service lines provided on the second boom, and a quick coupling device for coupling the plurality of first service lines with the plurality of second service lines, wherein the quick coupling device comprises a first coupling unit and a second coupling unit, wherein the first coupling unit includes a first coupling block wherein the first service lines are connected to the first coupling block, characterized in that the first coupling block is fixedly mounted to a side surface of the first boom and the second coupling unit includes a second coupling block, wherein the second service lines are connected to the second coupling block and wherein the second coupling block is arranged laterally to a side surface of the second boom such that the second coupling block is rotatable relative to the first coupling block between a connection position in which the first and second coupling blocks (120, 160) are connected to each other and a release position in which the first and second coupling blocks (120, 160) are disconnected from each other. a first boom, a second boom attachable to the first boom, a plurality of first service lines provided on the first boom, a plurality of second service lines provided on the second boom, and a quick coupling device for coupling the plurality of first service lines with the plurality of second service lines, wherein the quick coupling device comprises a first coupling unit and a second coupling unit, wherein the first coupling unit includes a first coupling block wherein the first service lines are connected to the first coupling block, characterized in that the first coupling block is fixedly mounted to a side surface of the first boom and the second coupling unit includes a second coupling block, wherein the second service lines are connected to the second coupling block and wherein the second coupling block is arranged laterally to a side surface of the second boom such that the second coupling block is rotatable relative to the first coupling block between a connection position in which the first and second coupling blocks (120, 160) are connected to each other and a release position in which the first and second coupling blocks (120, 160) are disconnected from each other.
A method for protecting a single sign-on domain from credential leakage, comprising: an authentication server providing an authentication cookie to a user browser client, wherein the authentication cookie has at least one user authentication credential for the single sign-on domain, and is associated with an authentication subdomain of the single sign-on domain; the authentication server receiving the authentication cookie in an access request from the browser client, wherein the access request is based on a redirection received by the user browser client from a content server within the single sign-on domain in response to a content request from the user browser client; upon authentication of the user authentication credential in the received authentication cookie, the authentication server responding to the access request by forwarding, to the user browser client, a limited-use cookie for the single sign-on domain; the authentication server receiving a request from the content server to validate a session identifier of the limited-use cookie, wherein the content server received the limited-use cookie from the user browser client; and upon validation of the session identifier of the limited-use cookie, the authentication server providing a valid session message to the content server for enabling the content server to forward requested content to the user browser client. an authentication server providing an authentication cookie to a user browser client, wherein the authentication cookie has at least one user authentication credential for the single sign-on domain, and is associated with an authentication subdomain of the single sign-on domain; the authentication server receiving the authentication cookie in an access request from the browser client, wherein the access request is based on a redirection received by the user browser client from a content server within the single sign-on domain in response to a content request from the user browser client; upon authentication of the user authentication credential in the received authentication cookie, the authentication server responding to the access request by forwarding, to the user browser client, a limited-use cookie for the single sign-on domain; the authentication server receiving a request from the content server to validate a session identifier of the limited-use cookie, wherein the content server received the limited-use cookie from the user browser client; and upon validation of the session identifier of the limited-use cookie, the authentication server providing a valid session message to the content server for enabling the content server to forward requested content to the user browser client.