mhurhangee/ep-ind-claims huggingface dataset:
A method for coating a carbon-carbon composite structure, comprising: forming a first slurry by combining a glass frit comprising a first phosphate glass composition with a first carrier fluid comprising an acid aluminum phosphate, wherein a ratio of aluminum to phosphoric acid is between 1:2 and 1:3 by weight; applying the first slurry on a surface of the composite structure to form a base layer; and heating the composite structure to a temperature sufficient to adhere the base layer to the composite structure, further comprising forming a second slurry by combining a second glass frit comprising a second phosphate glass composition with a second carrier fluid; applying the second slurry to the base layer to form a sealing layer; and heating the composite structure to a second temperature sufficient to adhere the sealing layer to the base layer; wherein the first phosphate glass composition of the base layer comprises between 15 weight percent and 30 weight percent of boron nitride. forming a first slurry by combining a glass frit comprising a first phosphate glass composition with a first carrier fluid comprising an acid aluminum phosphate, wherein a ratio of aluminum to phosphoric acid is between 1:2 and 1:3 by weight; applying the first slurry on a surface of the composite structure to form a base layer; and heating the composite structure to a temperature sufficient to adhere the base layer to the composite structure, further comprising forming a second slurry by combining a second glass frit comprising a second phosphate glass composition with a second carrier fluid; applying the second slurry to the base layer to form a sealing layer; and heating the composite structure to a second temperature sufficient to adhere the sealing layer to the base layer; wherein the first phosphate glass composition of the base layer comprises between 15 weight percent and 30 weight percent of boron nitride.
Arrangement, a. with a first part, b. with a second part pivotably articulated to the first part via a hinge, wherein c. one fitting is fastened to the first part while another fitting is fastened to the second part, d. the hinge is a multi-jointed hinge, wherein e. a piston cylinder damping unit is provided i. which is operatively arranged between the first part and the second part for damping a pivoting movement of the two parts (2, 4) relative to each other, and ii. which is articulated to at least one part (2, 4), f. the hinge comprises a first four-point joint articulated to the fitting and a second four-point joint articulated to the fitting, the two four-point joints being articulated to each other, g. the multi-jointed hinge comprises a central hinge arm to which the piston cylinder damping unit is articulated by means of a fastening arm, h. the fastening arm is configured such as to be separate from the central hinge arm, and i. the fastening arm is part of the first four-point joint and of the second four-point joint at the same time. a. with a first part, b. with a second part pivotably articulated to the first part via a hinge, c. one fitting is fastened to the first part while another fitting is fastened to the second part, d. the hinge is a multi-jointed hinge, e. a piston cylinder damping unit is provided i. which is operatively arranged between the first part and the second part for damping a pivoting movement of the two parts (2, 4) relative to each other, and ii. which is articulated to at least one part (2, 4), i. which is operatively arranged between the first part and the second part for damping a pivoting movement of the two parts (2, 4) relative to each other, and ii. which is articulated to at least one part (2, 4), f. the hinge comprises a first four-point joint articulated to the fitting and a second four-point joint articulated to the fitting, the two four-point joints being articulated to each other, g. the multi-jointed hinge comprises a central hinge arm to which the piston cylinder damping unit is articulated by means of a fastening arm, h. the fastening arm is configured such as to be separate from the central hinge arm, and i. the fastening arm is part of the first four-point joint and of the second four-point joint at the same time.
Method for measuring workpiece geometries using a coordinate measuring unit with movable traveling axes and with one or more sensors for detecting measurement points on the workpiece surfaces, a sensor being an image processing sensor which is associated with at least one lighting source or lighting system, wherein the light characteristics of lighting systems of the coordinate measuring unit, meaning the dependence of the lighting intensity on the set value at the operator interface of said measuring unit, are recorded by measurement on an object standardized or calibrated in its reflection behaviour and are standardized for several units, thereby ensuring the transferability of programs between said units.
A method for detecting critical driving situations of motor vehicles, in particular for preventing collisions with an object located in front of an own vehicle, with the following steps: - specifying an acceleration profile (a VOR,E) depending on driving variables of the own vehicle; - assuming a time progression of a foreseeable acceleration of the own vehicle (a VOR,E) based on a current acceleration (a AKT,E) of the own vehicle; - determining a path profile (s E) of the own vehicle from the time progression of the foreseeable acceleration (a VOR,E); - detecting a current distance (dist AKT,V) and a current relative velocity (vrel AKT,V) of an object in front of the own vehicle; - assuming a time progression of a foreseeable acceleration of the object (a VOR,V) based on a current acceleration (a AKT,V) of the object in front; - determining a path profile of the object (s V) from the time progression of the foreseeable acceleration (a VOR,V); - comparing the path profile (s E) of the own vehicle with the path profile (s V) of the object; and - when the two path profiles (s E, s V) intersect, determining the probable collision time (T K) of the own vehicle with the object; - comparing a time (T Schwelle) with the determined probable collision time (T K) of the own vehicle with the object; and - when the probable collision time (T K) is before time (T Schwelle), delivering a warning to the driver of the own vehicle. - specifying an acceleration profile (a VOR,E) depending on driving variables of the own vehicle; - assuming a time progression of a foreseeable acceleration of the own vehicle (a VOR,E) based on a current acceleration (a AKT,E) of the own vehicle; - determining a path profile (s E) of the own vehicle from the time progression of the foreseeable acceleration (a VOR,E); - detecting a current distance (dist AKT,V) and a current relative velocity (vrel AKT,V) of an object in front of the own vehicle; - assuming a time progression of a foreseeable acceleration of the object (a VOR,V) based on a current acceleration (a AKT,V) of the object in front; - determining a path profile of the object (s V) from the time progression of the foreseeable acceleration (a VOR,V); - comparing the path profile (s E) of the own vehicle with the path profile (s V) of the object; and - when the two path profiles (s E, s V) intersect, determining the probable collision time (T K) of the own vehicle with the object; - comparing a time (T Schwelle) with the determined probable collision time (T K) of the own vehicle with the object; and - when the probable collision time (T K) is before time (T Schwelle), delivering a warning to the driver of the own vehicle.
A method of operating a dispenser (130, 403, or 522) of a self-service terminal (110, 401, or 510) to validate a dispense command, the method comprising: obtaining, by the dispenser (130, 403, or 522), a token and a dispense command that are issued from a remote host (140 or 530) (step 210), wherein obtaining the token and the dispense command further includes receiving the token and the dispense command directly from a controller to which the dispenser (130, 403, or 522) is coupled (step 211), wherein receiving the token and the dispense command further includes providing a nonce to the remote host (140 or 530) before obtaining the token, the nonce being used by the remote host (140 or 530) in generating the token (step 212), wherein the token is a Message Authentication Code, MAC, message generated by inputting a shared key shared between the dispenser and the remote host, the nonce, and a dispense amount associated with the dispense command into a first message authentication code function; and validating the token and the dispense command before processing the dispense command (step 220); wherein validating the token and the dispense command includes independently reproducing a version of the token by obtaining the shared key from a secure microprocessor (131 or 524) of the dispenser (130, 403 or 522), the secure microprocessor (131 or 524) being accessible only by the dispenser (130, 403 or 522), and using the shared key in reproducing the version (step 222) by processing a second message authentication code function on the secure microprocessor (131 or 524) using the shared key, the nonce, and the dispense amount associated with the dispense command (step 223) to generate a reproduced version of the MAC message, and comparing the reproduced version with the token to ascertain whether there is a match (step 221), thereby indicating that the token and the dispense command are valid and indicating that the dispense operation is to be performed.
Apparatus to capture and display an image of an object, said apparatus comprising: a frame, a body connected to the frame and comprising a screen for displaying the image of the object; at least one optical sensor for capturing the image of the object, means for moving the frame relative to a surface of the object in a first direction, and means for moving the optical sensor and the screen relative to the frame in a second, translational, direction, wherein the means for moving the frame comprise at least one roller and at least one skid rotatably connected to the at least one roller, such that the body is allowed to go from a closed position in which it is substantially parallel with the at least one skid, to an open position. a frame, a body connected to the frame and comprising a screen for displaying the image of the object; at least one optical sensor for capturing the image of the object, means for moving the frame relative to a surface of the object in a first direction, and means for moving the optical sensor and the screen relative to the frame in a second, translational, direction, wherein the means for moving the frame comprise at least one roller and at least one skid rotatably connected to the at least one roller, such that the body is allowed to go from a closed position in which it is substantially parallel with the at least one skid, to an open position.
A topology transparent zone sub-network, referred to as topology transparent zone in an Autonomous System domain network, referred to as Autonomous System domain comprising: a plurality of interconnected topology transparent zone nodes comprising at least some topology transparent zone edge nodes, wherein the topology transparent zone edge nodes are connected to a plurality of neighboring external nodes in the Autonomous System domain via a plurality of external links; and a plurality of internal links each of which interconnects a pair of the topology transparent zone nodes, wherein the topology transparent zone nodes exchange a plurality of link state advertisements, LSAs, with one another describing the internal links without distributing any link state information related to the topology transparent zone's inner-topology to any of the external nodes, and wherein a topology transparent zone edge node constructs and distributes a link state advertisement, LSA, comprising: an LSA header comprising a link state type field specifying a type of the LSA; a router links field comprising a plurality of router links each of which describe a different one of the external links and the internal links connected to the topology transparent zone edge node; and a number of links field specifying the number of router links in the router links field. a plurality of interconnected topology transparent zone nodes comprising at least some topology transparent zone edge nodes, wherein the topology transparent zone edge nodes are connected to a plurality of neighboring external nodes in the Autonomous System domain via a plurality of external links; and a plurality of internal links each of which interconnects a pair of the topology transparent zone nodes, wherein the topology transparent zone nodes exchange a plurality of link state advertisements, LSAs, with one another describing the internal links without distributing any link state information related to the topology transparent zone's inner-topology to any of the external nodes, and wherein a topology transparent zone edge node constructs and distributes a link state advertisement, LSA, comprising: an LSA header comprising a link state type field specifying a type of the LSA; a router links field comprising a plurality of router links each of which describe a different one of the external links and the internal links connected to the topology transparent zone edge node; and a number of links field specifying the number of router links in the router links field. an LSA header comprising a link state type field specifying a type of the LSA; a router links field comprising a plurality of router links each of which describe a different one of the external links and the internal links connected to the topology transparent zone edge node; and a number of links field specifying the number of router links in the router links field.
A device (1, 101) for performing a pre-sowing laser stimulation of seeds, in particular by irradiation with adjustable energy doses, comprising a laser, a seed container, a seed displacement assembly and a seed receiving unit, generally called device components that are housed in a device housing for performing the pre-sowing laser stimulation of seeds, characterized in that the seed displacement assembly is a driven rotary element with seats (12, 112) transporting the seeds on which light beams (25; 26, 27, 28) are directed having the same or different wavelengths emitted by at least two lasers (21, 22, 23) or sets of lasers and located in the housing of the device at a path of movement of the seeds from the seed container (41, 141) to the seed receiving unit (42, 45, 142, 145).
A vehicle comprising: a wheel bearing housing attached to suspension components of the vehicle, the housing including calliper mounting means to which a brake calliper is mountable to the vehicle; a wheel bearing mounted in the wheel bearing housing; a hub mounted in the wheel bearing for rotation with respect to the wheel bearing housing, and including disc mounting means to which a brake disc is mountable on the vehicle for rotation with the hub; and a wheel releasably mounted on the hub for rotation therewith; and an axial-flux electrical machine arranged for driving the hub with respect to the wheel bearing housing, the electrical machine comprising: a stator (24; 300); and a rotor (22; 340); characterised in that the stator (24; 300) is mounted on the calliper mounting means in the manner of mounting a brake calliper thereon in substitution of a brake calliper, in that the rotor (22; 340) is mounted on the disc mounting means in the manner of mounting a brake disc thereon, in substitution of a brake disc, such that the rotor (22; 340) is rotatable with the hub and wheel. a wheel bearing housing attached to suspension components of the vehicle, the housing including calliper mounting means to which a brake calliper is mountable to the vehicle; a wheel bearing mounted in the wheel bearing housing; a hub mounted in the wheel bearing for rotation with respect to the wheel bearing housing, and including disc mounting means to which a brake disc is mountable on the vehicle for rotation with the hub; and a wheel releasably mounted on the hub for rotation therewith; and an a stator (24; 300); and a rotor (22; 340);
A multicomponent permanent magnet, in particular for an electrical machine, the multicomponent permanent magnet comprising: a first permanent magnet having a R-T-B-composition, wherein R is at least one selected from the group consisting of Y, Ce, La, Pr, Nd, Sm, Eu and Gd and T is one or more transition metal elements including Fe; a second permanent magnet having a R-T-B-composition, wherein R is at least one selected from the group consisting of Y, Ce, La, Pr, Nd, Sm, Eu and Gd and T is one or more transition metal elements including Fe, the second magnet having a higher coercivity than the first magnet; wherein the first permanent magnet and the second permanent magnet are mechanically connected, wherein the first and second magnets have been produced independently and connected thereafter, wherein the first permanent magnet and the second permanent magnet are connected in an electrically conductive manner, and wherein an electrical resistivity ρ c across a connection between the first permanent magnet and the second permanent magnet in at least one portion of the connection is adjusted to satisfy the following formula: 10 − 3 ρ m ≤ ρ c ≤ 10 3 ρ m, wherein ρ m is the larger one of the bulk resistivities of the first and second permanent magnets, and characterised in that the connection between the first and the second permanent magnets includes an electrically conductive glue. a first permanent magnet having a R-T-B-composition, wherein R is at least one selected from the group consisting of Y, Ce, La, Pr, Nd, Sm, Eu and Gd and T is one or more transition metal elements including Fe; a second permanent magnet having a R-T-B-composition, wherein R is at least one selected from the group consisting of Y, Ce, La, Pr, Nd, Sm, Eu and Gd and T is one or more transition metal elements including Fe, the second magnet having a higher coercivity than the first magnet; wherein the first permanent magnet and the second permanent magnet are mechanically connected, wherein the first and second magnets have been produced independently and connected thereafter, wherein the first permanent magnet and the second permanent magnet are connected in an electrically conductive manner, and wherein an electrical resistivity ρ c across a connection between the first permanent magnet and the second permanent magnet in at least one portion of the connection is adjusted to satisfy the following formula: 10 − 3 ρ m ≤ ρ c ≤ 10 3 ρ m, wherein ρ m is the larger one of the bulk resistivities of the first and second permanent magnets, and characterised in that the connection between the first and the second permanent magnets includes an electrically conductive glue.
A touch panel, comprising: a substrate; a transparent conductive layer disposed on the substrate; a conductive decoration pad disposed on the transparent conductive layer; a decoration layer disposed on the conductive decoration pad and the transparent conductive layer, and having an opening located on the conductive decoration pad; and an opaque conductive layer disposed on the decoration layer and electrically connected with the transparent conductive layer through the opening and the conductive decoration pad. a substrate; a transparent conductive layer disposed on the substrate; a conductive decoration pad disposed on the transparent conductive layer; a decoration layer disposed on the conductive decoration pad and the transparent conductive layer, and having an opening located on the conductive decoration pad; and an opaque conductive layer disposed on the decoration layer and electrically connected with the transparent conductive layer through the opening and the conductive decoration pad.
A non-asbestos frictional material composition containing a binder, an organic filler, an inorganic filler, and a fiber base material, comprising: copper in a content of 0.5 mass % or less as a copper element; a metal other than copper and copper alloy in a content of 0.5 mass % or less; an acrylic elastomer-dispersed phenol resin as the binder in a content of 7-15 mass %; and Ca 2 and/or CaO as the inorganic filler in a content of 1-5 mass %.
A method for transmitting a Device-to-Device, D2D, control channel by a communication mode 1 D2D terminal in a wireless communication system, the method comprising: receiving a Timing Advance, TA, command from a network node; determining a value, NTA, indicating a timing offset between an uplink radio frame and a downlink radio frame from a TA indicated by the TA command; setting a TA indicator, ITAI, indicating a D2D signal reception timing adjustment value, TA', using the value, NTA, indicating the timing offset; transmitting a D2D control channel including the TA indicator ITAI indicating a D2D signal reception timing adjustment value TA' to another D2D terminal, and when the TA indicator is set, the value NTA indicating the timing offset is mapped to a closest value from among values available as D2D signal reception timing adjustment values TA'; and wherein a size of a field indicating the TA is different from a size of a field indicating the D2D signal reception timing adjustment value, TA'. receiving a Timing Advance, TA, command from a network node; determining a value, NTA, indicating a timing offset between an uplink radio frame and a downlink radio frame from a TA indicated by the TA command; setting a TA indicator, ITAI, indicating a D2D signal reception timing adjustment value, TA', using the value, NTA, indicating the timing offset; transmitting a D2D control channel including the TA indicator ITAI indicating a D2D signal reception timing adjustment value TA' to another D2D terminal, and when the TA indicator is set, the value NTA indicating the timing offset is mapped to a closest value from among values available as D2D signal reception timing adjustment values TA'; and wherein a size of a field indicating the TA is different from a size of a field indicating the D2D signal reception timing adjustment value, TA'.
A carrier for an object to be scanned, which carrier is provided for mounting on a scanner rocker of a scanning device for scanning at least one object, in particular a dental object, wherein the carrier for an object to be scanned has a basic body and at least one securing arrangement for securing the basic body to the scanner rocker and at least one object fixing arrangement for fixing the object to the carrier for an object to be scanned, wherein the object fixing arrangement is mounted on the basic body in a manner pivotable relative to the basic body, characterised in that the object fixing arrangement is mounted on the basic body in a manner freely pivotable between two end positions (7, 8) due to gravity.