mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting defects on tyres in a tyre production process, the method comprising: a) providing a tyre; b) acquiring a three-dimensional image of a surface portion of the tyre; c) generating , as a function of the acquired image, a plurality of values indicating the measure of a height profile (S_pa) of the surface portion of the tyre; d) calculating , as a function of the plurality of values of the measure of the height profile and according to a consensus interpolation, a plurality of values indicating an estimation of a reference height profile (<Spar>) of the surface portion of the tyre; e) calculating , as a function of the plurality of values of the measure of the height profile and of the estimation of the reference height profile, a height profile of possible defects (S_papd) in the surface portion of the tyre; f) comparing values of the height profile of possible defects with respect to a threshold value (S_th) in order to detect possible defects in the surface portion of the tyre. a) providing a tyre; b) acquiring a three-dimensional image of a surface portion of the tyre; c) generating , as a function of the acquired image, a plurality of values indicating the measure of a height profile (S_pa) of the surface portion of the tyre; d) calculating , as a function of the plurality of values of the measure of the height profile and according to a consensus interpolation, a plurality of values indicating an estimation of a reference height profile (<Spar>) of the surface portion of the tyre; e) calculating , as a function of the plurality of values of the measure of the height profile and of the estimation of the reference height profile, a height profile of possible defects (S_papd) in the surface portion of the tyre; f) comparing values of the height profile of possible defects with respect to a threshold value (S_th) in order to detect possible defects in the surface portion of the tyre.
An actuator for transmitting rotary motion from an input element to an output element , the actuator having an end-of-stroke limit, wherein the actuator comprises: a deformable element and a deforming element ; a stopping element movable between a non-stopping position and a stopping position, wherein the deforming element rotates with the deformable element when the stopping element is in the non-stopping position, and wherein relative motion occurs between the deformable element and the deforming element when the stopping element is in the stopping position; and a timing gear responsive to rotation of the input element or the output element ; wherein the deforming element causes deformation of the deformable element when relative motion occurs between the deformable element and the deforming element ; characterized in that : the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element ; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached. a deformable element and a deforming element ; a stopping element movable between a non-stopping position and a stopping position, wherein the deforming element rotates with the deformable element when the stopping element is in the non-stopping position, and wherein relative motion occurs between the deformable element and the deforming element when the stopping element is in the stopping position; and a timing gear responsive to rotation of the input element or the output element ; wherein the deforming element causes deformation of the deformable element when relative motion occurs between the deformable element and the deforming element ; characterized in that : the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element ; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached. the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element ; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached.
Extruder comprising a billet feed device , which is arranged at a head side axially in front of a billet stop of the extruder , for linear loading into the extruder of a billet which is to be pressed in the extruder , wherein the billet can then be brought by a billet loader into a billet receiver upstream of a shape-imparting die, wherein the billet feed device comprises a frame , which comprises a linear guide device (8; 108; 208; 308; 408), and a loading carriage (9; 109; 309; 409), which is arranged at the linear guide device (8; 108; 208; 308; 408) to be linearly displaceable in the longitudinal direction of a linear guide track (11; 111; 311; 411), wherein the loading carriage (9; 109; 309; 409) comprises an entrainer part for holding the billet to be loaded, characterised in that the billet feed device is constructed with a multi-part loading carriage (9; 109; 309; 409) with at least one carriage lower part (14; 115; 215; 315; 415), which is linearly displaceable relative to the linear guide device (8; 108; 208; 308; 408), and additionally with a carriage upper part (16; 116; 216; 316; 416) linearly displaceable not only relative to the linear guide device (8; 108; 208; 308; 408), but also relative to the carriage lower part (15; 115; 215; 315; 415).
A method for identifying and selecting a wireless device that is to be remotely controlled by a Remote Control Appliance, RCA, for media presentation in a vehicle , wherein the RCA is separate and distinct from a vehicle head unit of the vehicle , the method comprising: responsive to an occurrence of a vehicle operation, the RCA broadcasting a Bluetooth Low Energy, BLE, advertising message receivable by one or several wireless devices located in a vicinity of the RCA ; responsive to a receipt of a broadcasted BLE advertising message from the RCA , in each one of the wireless devices located in the vicinity of the RCA : initiating a checking operation to determine whether the wireless device is paired or is in a current cabled connection with a vehicle head unit of the vehicle ; and upon a determination that the wireless device is paired or is in a current cabled connection with the vehicle head unit , authorizing the wireless device for subsequent communication with the RCA to enable the RCA to remotely control the media presentation as presented by an application module of the wireless device . responsive to an occurrence of a vehicle operation, the RCA broadcasting a Bluetooth Low Energy, BLE, advertising message receivable by one or several wireless devices located in a vicinity of the RCA ; responsive to a receipt of a broadcasted BLE advertising message from the RCA , in each one of the wireless devices located in the vicinity of the RCA : initiating a checking operation to determine whether the wireless device is paired or is in a current cabled connection with a vehicle head unit of the vehicle ; and upon a determination that the wireless device is paired or is in a current cabled connection with the vehicle head unit , authorizing the wireless device for subsequent communication with the RCA to enable the RCA to remotely control the media presentation as presented by an application module of the wireless device .
Resin composition, having improved haze and light transmittance, comprising the following blended components: a. matrix resin; b. crosslinked copolymer microspheres; wherein the crosslinked copolymer microspheres are alternating copolymers formed from monomers having anhydride, amide and/or imide groups, with olefin monomers and/or furan and its derivatives, and optionally crosslinked with a crosslinking agent, wherein the matrix resin as component a is selected from at least one transparent or translucent matrix resin. a. matrix resin; b. crosslinked copolymer microspheres; wherein the crosslinked copolymer microspheres are alternating copolymers formed from monomers having anhydride, amide and/or imide groups, with olefin monomers and/or furan and its derivatives, and optionally crosslinked with a crosslinking agent,
A hermetically-sealed package, comprising: a non-conductive substrate comprising a first major surface , a second major surface , and a cavity disposed in the first major surface, wherein the cavity comprises a recessed surface ; a cover layer disposed over the cavity and attached to the first major surface of the non-conductive substrate to form a hermetically-sealed enclosure ; a feedthrough comprising: a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; an electronic device disposed within the hermetically-sealed enclosure, wherein the electronic device comprises a device contact that is electrically connected to the conductive material disposed in the via such that the electronic device is electrically connected to the external contact; and one or more conductors disposed on the recessed surface and connected to the electronic device. a non-conductive substrate comprising a first major surface , a second major surface , and a cavity disposed in the first major surface, wherein the cavity comprises a recessed surface ; a cover layer disposed over the cavity and attached to the first major surface of the non-conductive substrate to form a hermetically-sealed enclosure ; a feedthrough comprising: a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; an electronic device disposed within the hermetically-sealed enclosure, wherein the electronic device comprises a device contact that is electrically connected to the conductive material disposed in the via such that the electronic device is electrically connected to the external contact; and one or more conductors disposed on the recessed surface and connected to the electronic device.
A ceramic circuit substrate comprising: a ceramic substrate ; a circuit pattern provided on a ceramic substrate ; and a braze material layer interposed between the ceramic substrate and the circuit pattern , wherein the braze material layer has a protruding portion protruding from an outer edge of the circuit pattern , wherein the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern ; characterized in that the braze material layer comprises Ag-rich phases formed continuously along a bonding interface between the ceramic substrate and the circuit pattern over a length of the braze material layer of 300 μm or more from an outer edge of the protruding portion towards the inside of the braze material layer in a cross-sectional view of the ceramic circuit substrate. a ceramic substrate ; a circuit pattern provided on a ceramic substrate ; and a braze material layer interposed between the ceramic substrate and the circuit pattern , wherein the braze material layer has a protruding portion protruding from an outer edge of the circuit pattern , wherein the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern ; the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern ; characterized in that the braze material layer comprises Ag-rich phases formed continuously along a bonding interface between the ceramic substrate and the circuit pattern over a length of the braze material layer of 300 μm or more from an outer edge of the protruding portion towards the inside of the braze material layer in a cross-sectional view of the ceramic circuit substrate.
A method of producing a whole egg powder which is suitable to be puffed, the method comprising processing eggs which are three days old or less, wherein the whole egg powder has: (i) a total free amino acids content of 500 mg/100 g or more; (ii) a free methionine content of 10 mg/100 g or more; and/or (iii) a free lysine content of 40 mg/100 g or more. (i) a total free amino acids content of 500 mg/100 g or more; (ii) a free methionine content of 10 mg/100 g or more; and/or (iii) a free lysine content of 40 mg/100 g or more.
A control unit for a steering system of a motor vehicle with device electronics arranged on a circuit board comprising control electronics , a power module and a current feed , wherein the control electronics are designed for processing input signals with the output of control signals to the power module and the power module has contact points for the connection of a steering servo motor for actuating the steering servo motor depending on the control signals, wherein the circuit board has at least two rigid circuit carriers connected by at least one flexible section , wherein the control electronics and the power module are arranged on each of the circuit carriers , respectively, characterized in that the circuit board is in the form of a rigid-flex circuit board, wherein a second flexible section of the circuit board is formed for the current feed on the circuit carrier of the power module .
A process for producing a compound represented by Formula : or a salt thereof comprising: reacting a compound represented by Formula : (wherein P 1 is an amino-protecting group) with a 2-nitrobenzenesulfonyl halide to form a compound represented by Formula : (wherein Ns is 2-nitrobenzenesulfonyl and P 1 is the same as defined above); reacting the compound with 1R-(1-naphthyl)ethylamine in the presence of tripotassium phosphate to form a compound represented by Formula : (wherein P 1 is the same as defined above); and deprotecting the compound.
Connecting arrangement for forming a fluid-conducting connection between a container and a fluid line, comprising a wall element , which can be arranged in or on a container wall of the container and which has an opening , and comprising a tubular connecting element having two sealing surfaces , the connecting element comprising, at an end side, a seal portion which is arranged circumferentially on the connecting element and which comprises an axially oriented sealing surface , and the connecting element comprising, at an end opposite the seal portion , a circumferential second sealing surface , the connecting element comprising, in the region of the first sealing surface , a connecting portion for insertion into the opening of the wall element and for connection to the wall element , characterized in that the tubular connecting element has an inner profile for receiving a tool head in a rotationally secure manner. a wall element , which can be arranged in or on a container wall of the container and which has an opening , and comprising a tubular connecting element having two sealing surfaces , the connecting element comprising, at an end side, a seal portion which is arranged circumferentially on the connecting element and which comprises an axially oriented sealing surface , and the connecting element comprising, at an end opposite the seal portion , a circumferential second sealing surface , the connecting element comprising, in the region of the first sealing surface , a connecting portion for insertion into the opening of the wall element and for connection to the wall element , characterized in that the tubular connecting element has an inner profile for receiving a tool head in a rotationally secure manner.
A method performed by a first node for sending feedback data and user data on a Physical Uplink Shared Channel, PUSCH, to a second node , wherein the feedback data is indicative of channel properties of a data channel for sending data from the second node to the first node , and wherein a wireless communication system comprises the first node and the second node , the method characterized by sending , in a time period, the feedback data and the user data within a plurality of resource units on the PUSCH, by sending said user data within a number of resource units reserved for the user data, said number being based on: - an assigned number of resource units; - a number of coded rank indicator, RI, symbols; and - a number of channel quality indicator, CQI, information bits or RI information bits, wherein the information bits for CQI or RI comprise non-coded data bits for CQI or RI, respectively. - an assigned number of resource units; - a number of coded rank indicator, RI, symbols; and - a number of channel quality indicator, CQI, information bits or RI information bits, wherein the information bits for CQI or RI comprise non-coded data bits for CQI or RI, respectively.
Method for the batch-wise production of direct reduced metal material, comprising the steps: a) charging metal material to be reduced into a furnace space ; b) evacuating an existing atmosphere from the furnace space so as to achieve a gas pressure of less than 1 bar inside the furnace space ; c) providing heat and hydrogen gas into the furnace space , so that heated hydrogen gas heats the charged metal material to a temperature high enough so that metal oxides present in the metal material are reduced, in turn causing water vapour to be formed, which provision of hydrogen gas is performed so that a pressure of more than 1 bar builds up inside the furnace space and without recirculation of the hydrogen gas during reduction of the metal material whereby the hydrogen gas is supplied into the furnace but not removed therefrom during the reduction; wherein the hydrogen gas is supplied into a top part of the furnace space , and d) before an evacuation of gases from the furnace space back to atmospheric pressure, condensing and collecting the water vapour formed in step c in a condenser below the charged metal material; and e) before an evacuation of gases from the furnace space back to atmospheric pressure, providing a carbon-containing gas into the top part of the furnace space , so that the heated and reduced metal material is carburized by said carbon-containing gas. a) charging metal material to be reduced into a furnace space ; b) evacuating an existing atmosphere from the furnace space so as to achieve a gas pressure of less than 1 bar inside the furnace space ; c) providing heat and hydrogen gas into the furnace space , so that heated hydrogen gas heats the charged metal material to a temperature high enough so that metal oxides present in the metal material are reduced, in turn causing water vapour to be formed, which provision of hydrogen gas is performed so that a pressure of more than 1 bar builds up inside the furnace space and without recirculation of the hydrogen gas during reduction of the metal material whereby the hydrogen gas is supplied into the furnace but not removed therefrom during the reduction; wherein the hydrogen gas is supplied into a top part of the furnace space , and d) before an evacuation of gases from the furnace space back to atmospheric pressure, condensing and collecting the water vapour formed in step c in a condenser below the charged metal material; and e) before an evacuation of gases from the furnace space back to atmospheric pressure, providing a carbon-containing gas into the top part of the furnace space , so that the heated and reduced metal material is carburized by said carbon-containing gas.
Device comprising a luminaire having at least one light source , the device for influencing a light cone emitted by the at least one light source of the luminaire is configured, the device comprising at least one sensor for detecting electromagnetic radiation of at least one light source or radiation source of the device, which radiation is reflected or scattered by an object in a region that can be illuminated by the luminaire , and for generating at least one sensor signal on the basis of the detected reflected radiation of the object , and means for influencing the emitted light cone on the basis of the at least one sensor signal, the device having a plurality of photodiodes as sensors that are spaced apart from one another, which in each case detect an intensity of the electromagnetic radiation reflected or scattered by the object , evaluate it and generate corresponding sensor signals, and the device determining the position of the object by means of triangulation based on the sensor signals of the different sensors , characterized in that the at least one light source of the luminaire is designed to emit light of different colors, depending on the control of the at least one light source , and in that the means for influencing the emitted light cone on the basis of the at least one sensor signal are designed to control at least one light source so that it emits light of a specific color, the device being configured to illuminate the detected object with white light and to illuminate the surroundings with less powerful red or yellow light.