mhurhangee/ep-ind-claims huggingface dataset:
Use of a projection nut feeding device including a feed rod provided at its front end with a projecting piece for supporting a multi-sided projection nut from below, the arrangement being such that said feed rod is advanced obliquely downward or substantially horizontally while temporarily holding a projection nut at its front end, the advance of the feed rod being stopped immediately in front of the guide pin of a fixed electrode or when the front end of the guide pin has been slightly inserted in a threaded hole in the projection nut, the temporary holding force on the projection nut being destroyed substantially simultaneously with said stoppage, thereby toppling the projection nut under its own weight with the front end edge of the projecting piece serving as the center for toppling, so as to fit on the guide pin of the fixed electrode, said projection nut feeding device being characterized in that the inner side of said projecting piece is formed with crossed support surfaces for supporting the outer side surfaces of the projection nut and in that corner lines at the place where the two support surfaces cross each other are arranged to be directed to the underside of said feed rod.
A method for positioning a shoe part in an automated manner during a shoe-manufacturing process, the method comprising: receiving (712; 812) an image depicting a two-dimensional representation of a first shoe part; determining an identity of the first shoe part by substantially matching the image to a reference image; determining (714; 814), from the image, a geometric coordinate of the first shoe part in a geometric coordinate system, which maps a three-dimensional space within which the first shoe part is positioned and a part-transfer apparatus operates; determining (718; 818), from a different image, a geometric coordinate of a second shoe part in the geometric coordinate system by analyzing the different image; and transferring (720; 820), by the part-transfer apparatus, the first shoe part to the geometric coordinate of the second shoe part. receiving (712; 812) an image depicting a two-dimensional representation of a first shoe part; determining an identity of the first shoe part by substantially matching the image to a reference image; determining (714; 814), from the image, a geometric coordinate of the first shoe part in a geometric coordinate system, which maps a three-dimensional space within which the first shoe part is positioned and a part-transfer apparatus operates; determining (718; 818), from a different image, a geometric coordinate of a second shoe part in the geometric coordinate system by analyzing the different image; and transferring (720; 820), by the part-transfer apparatus, the first shoe part to the geometric coordinate of the second shoe part.
A composition comprising an amine phosphate and melamine cyanurate; wherein the component contains components (A-1) and (A-2) below: the component (A-1) being at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate; and the component (A-2) being at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate. the component (A-1) being at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate; and the component (A-2) being at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate.
A radar bracket (300, 306, 400) for a vehicle comprising: a central portion configured to receive a radar module so that said radar module is exposed on a front side of said radar bracket, wherein said front side of said radar bracket being configured to face away from said vehicle; and a side wall (304, 308, 402) encircling and extending laterally from said central portion, said side wall comprising a non-conductive material; wherein at least of a portion of a backside of said side wall is covered by a radar absorbing material having a dielectric constant higher than a dielectric constant of said side wall, said backside of said side wall being configured to face said vehicle, and wherein said portion of said side wall being covered by said radar absorbing material has a thickness d w defined as d w = 2 m + 1 ε w λ 0 4, ε abs ≈ ε w 2 where λ 0 is the wavelength in air of a center frequency of said radar module, ε abs is the dielectric constant of said radar absorbing material, ε w is the dielectric constant of said side wall and m = 0...N. a central portion configured to receive a radar module so that said radar module is exposed on a front side of said radar bracket, wherein said front side of said radar bracket being configured to face away from said vehicle; and a side wall (304, 308, 402) encircling and extending laterally from said central portion, said side wall comprising a non-conductive material; wherein at least of a portion of a backside of said side wall is covered by a radar absorbing material having a dielectric constant higher than a dielectric constant of said side wall, said backside of said side wall being configured to face said vehicle, and wherein said portion of said side wall being covered by said radar absorbing material has a thickness d w defined as d w = 2 m + 1 ε w λ 0 4, ε abs ≈ ε w 2 where λ 0 is the wavelength in air of a center frequency of said radar module, ε abs is the dielectric constant of said radar absorbing material, ε w is the dielectric constant of said side wall and m = 0...N.
Method for connecting subcomponents (10, 12) of a filter element (32, 32'), wherein at least one of the subcomponents (10, 12) to be connected to one another is formed from a thermoplastic radiation-permeable material and is at least partially radiated through by means of radiation emitted by a light source, in particular a laser source, wherein the radiation in at least one melting region of the at least one subcomponent (10, 12) is focused in such a way that the subcomponents (10, 12) are firmly connected to one another by material melting at least in the respective melting region after cooling, characterised in that the melting region is produced in the radiation-permeable subcomponent (10, 12) and that at least one of the two subcomponents (10, 12) is a film-like product.
A display apparatus, comprising: a main body; and a display unit coupled to the main body and configured to selectively implement a transparent mode and an opaque mode, wherein the opaque mode is a mode that is implemented such that an object accommodated inside the main body is not visible from the outside, and wherein the display unit includes a transparent display panel exposed at a front of the main body, a first light source disposed behind the transparent display panel, a transparency adjusting unit disposed behind the first light source, and a second light source disposed behind the transparency adjusting unit, characterized in that the transparency adjusting unit has a mesh-type structure having a large number of small, evenly spaced holes which allow light to pass though; and a reflectivity of a first surface of the transparency adjusting unit facing the first light source is high, and an absorbance of a second surface of the transparency adjusting unit facing the second light source is high. a main body; and a display unit coupled to the main body and configured to selectively implement a transparent mode and an opaque mode, wherein the opaque mode is a mode that is implemented such that an object accommodated inside the main body is not visible from the outside, and wherein the display unit includes a transparent display panel exposed at a front of the main body, a first light source disposed behind the transparent display panel, a transparency adjusting unit disposed behind the first light source, and a second light source disposed behind the transparency adjusting unit, characterized in that the transparency adjusting unit has a mesh-type structure having a large number of small, evenly spaced holes which allow light to pass though; and a reflectivity of a first surface of the transparency adjusting unit facing the first light source is high, and an absorbance of a second surface of the transparency adjusting unit facing the second light source is high.
A submerged combustion melting system comprising: a submerged combustion melter having a housing that defines a melting chamber, the housing having a length extending along a longitudinal axis, a width, and a height, wherein the length is greater than the width; and a plurality of vibration damping devices operatively coupled to the housing to damp the vibration of the melter during operation, wherein at least one of the plurality of vibration damping devices is arranged to apply a damping force parallel to the length of the housing and at least another one of the plurality of vibration damping devices is arranged to apply a damping force perpendicular to the length of the housing, wherein a majority of the plurality of vibration damping devices extend in a direction traverse to the longitudinal axis. a submerged combustion melter having a housing that defines a melting chamber, the housing having a length extending along a longitudinal axis, a width, and a height, wherein the length is greater than the width; and a plurality of vibration damping devices operatively coupled to the housing to damp the vibration of the melter during operation, wherein at least one of the plurality of vibration damping devices is arranged to apply a damping force parallel to the length of the housing and at least another one of the plurality of vibration damping devices is arranged to apply a damping force perpendicular to the length of the housing, wherein a majority of the plurality of vibration damping devices extend in a direction traverse to the longitudinal axis.
A system for weed control, comprising: - an input unit; - a processing unit; - at least one camera; - at least one mulch application unit; and - an output unit; wherein, the at least one camera is configured to acquire at least one image of the environment; wherein, the input unit, processing unit, the at least one camera, the at least one mulch application unit, and the output unit are mounted on a vehicle; wherein, the input unit is configured to provide the processing unit with the at least one image of an environment; wherein, the processing unit is configured to analyse the at least one image to determine at least one location within the environment for activation of the at least one mulch application unit; wherein the at least one mulch application unit is configured to apply at least one mulch to the at least one location for weed control; and wherein the output unit is configured to output information useable to activate the at least one mulch application unit. - an input unit; - a processing unit; - at least one camera; - at least one mulch application unit; and - an output unit;
Device for force-transmitting connection of a first supporting building part, especially a building wall, to a second supported building part, especially a staircase part, at least comprising a support element which extends between the first building part and the second building part, wherein the support element has, at least in a first longitudinal portion (x 1), a first force-introduction region associated with the first building part and, at least in a second longitudinal portion (x 2) spaced apart from the first longitudinal portion (x 1) in the longitudinal direction (x) of the support element, a second force-introduction region associated with the second building part, wherein, at least in one of the two force-introduction regions (11, 12), the support element has a force-transmission element and/or co-operates with a force-transmission element, wherein, at least in the one of the two force-introduction regions (11, 12), the support element consists of a profile body having at least two profile webs (5a, 5b, 5c, 5d) extending in the longitudinal direction, wherein the force-transmission element has a first force-introduction surface, and wherein the force-introduction surface has, in a cross-sectional plane extending orthogonally with respect to the longitudinal direction (x) of the support element, an at least in part circular-arc-shaped surface curvature, characterised in that in the installed state the force-transmission element is arranged on the underside of the support element, and the force-introduction surface of the force-transmission element is arranged on the underside of the force-transmission element. wherein, at least in one of the two force-introduction regions (11, 12), the support element has a force-transmission element and/or co-operates with a force-transmission element, wherein, at least in the one of the two force-introduction regions (11, 12), the support element consists of a profile body having at least two profile webs (5a, 5b, 5c, 5d) extending in the longitudinal direction, wherein the force-transmission element has a first force-introduction surface, and wherein the force-introduction surface has, in a cross-sectional plane extending orthogonally with respect to the longitudinal direction (x) of the support element, an at least in part circular-arc-shaped surface curvature, characterised in that in the installed state the force-transmission element is arranged on the underside of the support element, and the force-introduction surface of the force-transmission element is arranged on the underside of the force-transmission element.
A non-thermal refined nitrocarburized component, comprising a steel material of a base metal, the steel material having a chemical composition comprising: by mass%, C: 0.35 to 0.50%; Si: 0.10 to 0.35%; Mn: 2.3 to 2.8%; S: 0.10% or less; N: 0.0030 to 0.0250%; Cu: 0 to 1.0%; Mo: 0 to 0.3%; Ni: 0 to 0.5%; Ti: 0 to 0.020%; and the balance: Fe and impurities, wherein Fn1 shown by the below described Formula satisfies 3.10 ≤ Fn1 ≤ 6.00, and the impurities include P: 0.08% or less; Al: 0.05% or less; and Cr: less than 0.20%, and wherein at a stress concentrated region, an HV hardness according to JIS Z 2244:2009 at a position of 0.05 mm from a surface is 410 to 480, an HV hardness according to JIS Z 2244:2009 at a position of 1.0 mm from the surface is 200 or more, a compound-layer depth is 5μm or less, and a metal micro-structure of the base metal is a microstructure in which bainite accounts for 80% or more of the base metal micro-structure: Fn 1 = 0.316 C + 0.122 × 0.7 Si + 1 × 5.1 Mn − 1.12 × 0.364 Ni + 1 × 2.16 Cr + 1 × 3 Mo + 1 where an symbol of an element in Formula indicates a content of the element in steel in mass%.
A method of mounting a roof panel assembly to a vehicle having a roof opening in its fixed vehicle roof, said roof panel assembly comprising a frame, a rigid movable panel supported by the frame through an operating mechanism carrying a ring frame, enabling the panel to move between a closed position closing the roof opening and an open position opening the roof opening at least partly, said method comprising: - mounting the frame of the roof panel assembly to the fixed vehicle roof of the vehicle from below with the operating mechanism and the ring frame in a position corresponding to the closed position of the movable panel, the method further being characterised by: - providing an amount of paste-like adhering material onto the ring frame distributed around the circumference thereof, - positioning the movable panel onto the ring frame from above with the adhering material interpositioned and thereby substantially plastically compressing the adhering material until a correct position with respect to the fixed vehicle roof is reached, and - keeping the movable panel in this position until the adhering material is sufficiently hardened to maintain the panel in its position. - mounting the frame of the roof panel assembly to the fixed vehicle roof of the vehicle from below with the operating mechanism and the ring frame in a position corresponding to the closed position of the movable panel, the method further being characterised by: - providing an amount of paste-like adhering material onto the ring frame distributed around the circumference thereof, - positioning the movable panel onto the ring frame from above with the adhering material interpositioned and thereby substantially plastically compressing the adhering material until a correct position with respect to the fixed vehicle roof is reached, and - keeping the movable panel in this position until the adhering material is sufficiently hardened to maintain the panel in its position. - providing an amount of paste-like adhering material onto the ring frame distributed around the circumference thereof, - positioning the movable panel onto the ring frame from above with the adhering material interpositioned and thereby substantially plastically compressing the adhering material until a correct position with respect to the fixed vehicle roof is reached, and - keeping the movable panel in this position until the adhering material is sufficiently hardened to maintain the panel in its position.
Trailer coupling for a motor vehicle for attaching a trailer or supporting a load carrier, with a coupling arm provided with a coupling element for coupling-on the trailer or load carrier, and at least one sensor (60, 360) mounted on the coupling arm, for detecting a deformation of the coupling arm due to a load acting on the coupling arm, wherein there is provided on an outer peripheral contour of the coupling arm at least one recess (40, 41; 340, 341), in or on which the sensor or sensors (60, 360) is or are mounted or held, wherein the sensor or sensors (60, 360) has or have a first sensor part and a second sensor part, wherein the sensor parts (63, 64) are each connected to the coupling arm at a distance from one another, in particular bonded and/or clamped flat, characterised in that the sensor parts (63, 64) make a relative movement towards one another during deformation of the coupling arm and the sensor parts (63, 64) are discrete and not connected to one another and have electrically capacitive surfaces lying opposite one another and/or interacting.
A cabinet comprising: a cabinet body at least partially surrounding a cabinet space and defining a cabinet opening that allows access to the cabinet space; a cabinet door at least partially covering the cabinet opening when in a closed position and extending upward from a lower edge portion to an upper edge portion; and a track-cam arrangement that slidingly couples the cabinet door to the cabinet body, wherein the cabinet door has an outer exposed surface facing generally in a first direction away from the cabinet space when in the closed position, and wherein the cabinet door is slidingly coupled to the cabinet body for opening from the closed position to an open position including the lower edge portion moving upward and the upper edge portion moving upward and towards the first direction to expose the cabinet opening. a cabinet body at least partially surrounding a cabinet space and defining a cabinet opening that allows access to the cabinet space; a cabinet door at least partially covering the cabinet opening when in a closed position and extending upward from a lower edge portion to an upper edge portion; and a track-cam arrangement that slidingly couples the cabinet door to the cabinet body, wherein the cabinet door has an outer exposed surface facing generally in a first direction away from the cabinet space when in the closed position, and wherein the cabinet door is slidingly coupled to the cabinet body for opening from the closed position to an open position including the lower edge portion moving upward and the upper edge portion moving upward and towards the first direction to expose the cabinet opening.
System for friction stir welding with a device for changing the welding direction of the welding shoulder virtually without delay when required by the geometrical arrangement of the parts to be joined by welding or unevennesses of the material, with the following features: a) a main body with a welding table and a bridge support for the suspension of a friction welding head, wherein the friction welding head can steplessly move horizontally and vertically over the entire area of the welding table, characterized in that the system has the following features: b) a pin mount for securing and driving a welding pin tip of the friction welding head, wherein the welding pin tip is guided within a welding shoulder which can be inclined in relation to the pin axis; and a welding shoulder mount with a cardanic suspension for receiving and controlling the welding shoulder, wherein the welding shoulder mount is controlled at multiple points, lying at an angle with respect to one another, by in each case a main adjusting drive, respectively articulated on the friction welding head, by means of in each case a push and pull rod against the pressure of a centrally acting spring package. a) a main body with a welding table and a bridge support for the suspension of a friction welding head, wherein the friction welding head can steplessly move horizontally and vertically over the entire area of the welding table, b) a pin mount for securing and driving a welding pin tip of the friction welding head, wherein the welding pin tip is guided within a welding shoulder which can be inclined in relation to the pin axis; and a welding shoulder mount with a cardanic suspension for receiving and controlling the welding shoulder, wherein the welding shoulder mount is controlled at multiple points, lying at an angle with respect to one another, by in each case a main adjusting drive, respectively articulated on the friction welding head, by means of in each case a push and pull rod against the pressure of a centrally acting spring package.