mhurhangee/ep-ind-claims huggingface dataset:
An aircraft passenger seat row, comprising: a passenger seat frame supporting at least one passenger seat pan and at least one passenger backrest, the passenger seat frame including spaced frame members delimiting at least one passenger seat position, spaced legs supporting the spaced frame members in an elevated position above a floor, and spaced front and rear transverse beams (122, 124) coupled to the spaced frame members and the spaced legs, wherein the front transverse beam extends continuously from one end of the passenger seat frame to a position laterally outboard beyond an opposing end of the passenger seat frame and the rear transverse beam extends continuously from the one end of the passenger seat frame to the opposing end of the passenger seat frame; a coupling assembly including a first member coupled to the rear transverse beam and the first member receiving the front transverse beam therethrough, and a second member coupled to the front transverse beam, wherein the first and second members are interconnected by an interconnecting member; and a cabin attendant seat frame attached to the coupling assembly, the cabin attendant seat frame supporting a backrest and a pivoting seat pan. a passenger seat frame supporting at least one passenger seat pan and at least one passenger backrest, the passenger seat frame including spaced frame members delimiting at least one passenger seat position, spaced legs supporting the spaced frame members in an elevated position above a floor, and spaced front and rear transverse beams (122, 124) coupled to the spaced frame members and the spaced legs, wherein the front transverse beam extends continuously from one end of the passenger seat frame to a position laterally outboard beyond an opposing end of the passenger seat frame and the rear transverse beam extends continuously from the one end of the passenger seat frame to the opposing end of the passenger seat frame; a coupling assembly including a first member coupled to the rear transverse beam and the first member receiving the front transverse beam therethrough, and a second member coupled to the front transverse beam, wherein the first and second members are interconnected by an interconnecting member; and a cabin attendant seat frame attached to the coupling assembly, the cabin attendant seat frame supporting a backrest and a pivoting seat pan.
An actuator provided with a low voltage DC motor which is coupled via a two-stage reduction mechanism with an output gear wheel, wherein the reduction mechanism comprises a first stage with a worm carried on the motor shaft of the DC motor, which worm in a right-angle transmission cooperates with the circumference of an intermediate gear wheel, which intermediate gear wheel is carried on an intermediate shaft which carries along its axis a spiral pinion, and wherein the reduction mechanism furthermore comprises a second stage with the spiral pinion which in a parallel transmission cooperates with the circumference of the output gear wheel, which is implemented as a spiral gear wheel, characterized in that the spiral pinion furthermore cooperates at its circumference with a support that supports the spiral pinion at its circumference.
Locking device for a vehicle seat, in particular a motor vehicle seat, having a pawl which is mounted such that it can be pivoted about a first axis in order to lock a counterelement, having a clamping eccentric which is mounted such that it can be pivoted between a locked location and an unlocked location about a second axis which is parallel to the first axis and secures a locked state of the pawl by way of interaction with a first functional face of the pawl, the clamping eccentric acting in a spring-loaded manner via a clamping face on the first functional face in the locked state, wherein an unlocking element can be pivoted about the first axis by an actuating device counter to a spring force from a locked condition into an unlocked condition, and the clamping eccentric can be driven by the unlocking element such that it can be pivoted from its locked location in the direction of its unlocked location, wherein an unlocking slave is mounted such that it can be pivoted about the second axis from a locked condition into an unlocked condition, and wherein the unlocking slave is coupled via a driving coupling to the unlocking element in such a way that the unlocking slave can be driven such that it can be moved from its locked condition into its unlocked condition by way of a pivoting movement of the unlocking element from the locked condition into the unlocked condition, characterized in that a catching eccentric which is mounted such that it can be pivoted about the second axis can be driven by the unlocking element such that it can be moved from its locked position into its unlocked position, which catching eccentric secures a locked state of the pawl by way of interaction with the first functional face of the pawl, it being possible for the pawl to be supported in the locked state by a catching face of the catching eccentric.
An electric double layer capacitor, EDLC, comprising: a first electrode (3, 3a) comprising a first current collector and first plurality of carbon nanotubes, CNTs, formed substantially directly on the first current collector; a second electrode (3, 3b) comprising a second current collector and second plurality of carbon nanotubes, CNTs, formed substantially directly on the second current collector; and an electrolyte contacting the first and second electrodes and comprising cations and anions; characterized in that the electrolyte comprises a salt of the following formula: wherein R 1 and R 2 can be the same or different and are each a straight-chain or branched alkyl having 1 to 4 carbon atoms, and X- is an anion that comprises [B 4] - or [BF n 4-n] -, where n=0, 1, 2 or 3; wherein the first plurality of CNTs and the second plurality of CNTs have a lateral CNT spacing selected to provide void spaces having a size greater than two times the size of the cations and anions; wherein the lateral CNT spacing is at least the minimum spacing required such that a cutoff frequency of the EDLC, at which a capacitance of the EDLC is reduced by 3dB from a DC capacitance, is at least about 150 Hz such that the EDLC is configured to have a capacitive frequency window comprising about 1 Hz to about 150 Hz. a first electrode (3, 3a) comprising a first current collector and first plurality of carbon nanotubes, CNTs, formed substantially directly on the first current collector; a second electrode (3, 3b) comprising a second current collector and second plurality of carbon nanotubes, CNTs, formed substantially directly on the second current collector; and an electrolyte contacting the first and second electrodes and comprising cations and anions; characterized in that the electrolyte comprises a salt of the following formula: wherein R 1 and R 2 can be the same or different and are each a straight-chain or branched alkyl having 1 to 4 carbon atoms, and X- is an anion that comprises [B 4] - or [BF n 4-n] -, where n=0, 1, 2 or 3; wherein the first plurality of CNTs and the second plurality of CNTs have a lateral CNT spacing selected to provide void spaces having a size greater than two times the size of the cations and anions; wherein the lateral CNT spacing is at least the minimum spacing required such that a cutoff frequency of the EDLC, at which a capacitance of the EDLC is reduced by 3dB from a DC capacitance, is at least about 150 Hz such that the EDLC is configured to have a capacitive frequency window comprising about 1 Hz to about 150 Hz.
A blind rivet assembly comprising: a rivet body including a middle section having a substantially cylindrical through-bore at least prior to blind rivet setting, a flange laterally extending from a tool-end of the middle section, and a set of ribs extending from an underside of the flange; a mandrel including an axially elongated stem and a laterally enlarged head extending adjacent an end of the stem, the stem extending through the bore of the rivet body prior to blind rivet setting, characterized in that the head deforms during blind rivet setting as it is pulled completely through the rivet body; and at least two workpieces (220,222) fastened together by the rivet, internal apertures of the workpieces (221,223) having aligned but intentionally different lateral dimensions, the flange abutting a surface of the workpiece having a smaller one of the lateral dimensions. a rivet body including a middle section having a substantially cylindrical through-bore at least prior to blind rivet setting, a flange laterally extending from a tool-end of the middle section, and a set of ribs extending from an underside of the flange; a mandrel including an axially elongated stem and a laterally enlarged head extending adjacent an end of the stem, the stem extending through the bore of the rivet body prior to blind rivet setting, characterized in that the head deforms during blind rivet setting as it is pulled completely through the rivet body; and at least two workpieces (220,222) fastened together by the rivet, internal apertures of the workpieces (221,223) having aligned but intentionally different lateral dimensions, the flange abutting a surface of the workpiece having a smaller one of the lateral dimensions.
Device for feeding bristle bundles for the production of bristle products, in particular toothbrushes, wherein the device has at least one perforated plate having at least one hole array made of receiving holes into which the bristle bundles can be transported by means of a flow generated by a vacuum, and at least one baffle plate arranged downstream of the perforated plate, which baffle plate has at least one baffle surface as a stop for bristle bundles to be transported into the receiving holes of the perforated plate, characterized in that the baffle plate has an aerodynamic shape and the device has a housing with a receptacle for the baffle plate, wherein the receptacle has a streamlined inner contour corresponding to the aerodynamically shaped baffle plate.
A method for the generation of a scFv en-coding DNA with a framework suitable for selective alterations in the CDR region, wherein specific restriction sites are introduced into the sequence of a defined, stable and soluble scFv encoding DNA by means of site directed mutagenesis, characterised in that said soluble and stable scFv encoding DNA has been identified by a method comprising the following steps: • transformation of suitable host cells with a library wherein said library is a fusion product of an intrabody with a marker protein wherein said marker protein is only active as part of a fusion protein encoding a soluble and stable intrabody moiety, then • culturing said cells under conditions allowing the identification and selection of cells expressing a soluble and stable intrabody by detection of the marker protein. • transformation of suitable host cells with a library wherein said library is a fusion product of an intrabody with a marker protein wherein said marker protein is only active as part of a fusion protein encoding a soluble and stable intrabody moiety, then • culturing said cells under conditions allowing the identification and selection of cells expressing a soluble and stable intrabody by detection of the marker protein.
A repulpable insulation material comprising: a batt formed of a mixture of paper fiber and thermoplastic binder fiber distributed substantially randomly within the paper fiber, wherein the batt has a thickness of about 1/16 of an inch (1.5875 mm) or greater, wherein the thermoplastic binder fiber is adhered to the paper fiber; wherein the thermoplastic binder fiber represents between about 0.5% and about 25% by weight of the fiber mixture; wherein the thermoplastic binder fibers have a length of between about 0.5 mm to about 16 mm, wherein the material of the thermoplastic binder fiber is selected from a group consisting of polyethylene, polyester, polypropylene or mixtures thereof, and wherein the repulpable insulation material is greater than 85% repulpable as measured according to the method described herein.
A recording apparatus comprising: a transport belt configured to transport a medium; a pressing roller configured to press the medium onto the transport belt; and a support unit which is capable of supporting the transport belt, characterised in that at least a part of a portion of the support unit that faces the pressing roller with the transport belt disposed therebetween is subjected to friction relief. a transport belt configured to transport a medium; a pressing roller configured to press the medium onto the transport belt; and a support unit which is capable of supporting the transport belt, characterised in that at least a part of a portion of the support unit that faces the pressing roller with the transport belt disposed therebetween is subjected to friction relief.
A semiconductor device comprising: a silicon carbide substrate having a first main surface and a second main surface opposing the first main surface; an active epitaxial device layer on the first main surface of the silicon carbide substrate; a dimple extending from the second main surface into the silicon carbide substrate toward the first main surface such that the dimple extends entirely through the silicon carbide substrate; a doped epitaxial silicon carbide layer on the second main surface of the silicon carbide substrate and within the dimple, the doped epitaxial silicon carbide layer having a conductivity type opposite a conductivity type of the silicon carbide substrate; a first electrical contact over the active epitaxial device layer; and a second electrical contact overlying the second main surface and within the dimple. a silicon carbide substrate having a first main surface and a second main surface opposing the first main surface; an active epitaxial device layer on the first main surface of the silicon carbide substrate; a dimple extending from the second main surface into the silicon carbide substrate toward the first main surface such that the dimple extends entirely through the silicon carbide substrate; a doped epitaxial silicon carbide layer on the second main surface of the silicon carbide substrate and within the dimple, the doped epitaxial silicon carbide layer having a conductivity type opposite a conductivity type of the silicon carbide substrate; a first electrical contact over the active epitaxial device layer; and a second electrical contact overlying the second main surface and within the dimple.
Apparatus for the pretreatment and subsequent conveying, plastification or agglomeration of plastics, in particular of thermoplastics waste for recycling purposes, with a container for the material to be processed, where the arrangement has, in the container, at least one mixing and/or comminution implement which rotates around an axis of rotation and which is intended for the mixing, heating and optionally comminution of the plastics material, where an aperture through which the pretreated plastics material can be removed from the interior of the container is formed in a side wall of the container in the region of the level of the, or of the lowest, mixing and/or comminution implement that is closest to the base, where at least one conveyor, in particular one extruder, is provided to receive the pretreated material, and has at least one screw which rotates in a housing and which in particular has plastifying or agglomerating action, where the housing has, located at its end or in its jacket wall, an intake aperture for the material to be received by the screw, and there is connection between the intake aperture and the aperture, where the imaginary continuation of the central longitudinal axis of the conveyor or of the screw closest to the intake aperture, in a direction opposite to the direction of conveying of the conveyor, passes, and does not intersect, the axis of rotation, characterized in that, on the outflow side or in the direction of rotation or of movement of the mixing and/or comminution implement, there is an offset distance between the longitudinal axis of the conveyor or of the screw closest to the intake aperture, and the radius that is associated with the container and that is parallel to the longitudinal axis and that proceeds outwards from the axis of rotation of the mixing and/or comminution implement in the direction of conveying of the conveyor, and in that in the wall section that is part of the housing and that immediately follows the intake aperture in the direction of conveying and that completely surrounds the screw, there is a pocket which extends in the direction of conveying, starting at the downstream edge of the intake aperture or at the furthest downstream point of the intake aperture, over a length, where 0.8 d ≤ L ≤ 9 d, preferably 1 d ≤ L ≤ 7 d, where d is the external diameter or the diameter of the envelope curve of the screw in the wall section.
Cable reel, in particular for a pipe inspection system, the cable reel having a frame and a cable receptacle, the cable receptacle being rotatably arranged on the frame, it being possible to wind a cable onto the cable receptacle and unwind it from the cable receptacle, and - the cable receptacle having an inner cage and an outer cage, the diameter of the inner cage being smaller than the diameter of the outer cage, - the inner cage being arranged coaxially with respect to the outer cage and being inside the outer cage, - it being possible to rotate the inner cage and the outer cage independently of one another, - the inner cage being provided for receiving a first cable portion of the cable and the outer cable being provided for receiving a second cable portion of the cable, and - a guide means, through which the first cable portion can be guided to the inner cage or vice versa, being provided on the outer cage, characterized in that the guide means has two rollers (31, 32) that are spaced apart from each other and extend parallel to the axis of rotation, the first cable portion extending between the two rollers. - the cable receptacle having an inner cage and an outer cage, the diameter of the inner cage being smaller than the diameter of the outer cage, - the inner cage being arranged coaxially with respect to the outer cage and being inside the outer cage, - it being possible to rotate the inner cage and the outer cage independently of one another, - the inner cage being provided for receiving a first cable portion of the cable and the outer cable being provided for receiving a second cable portion of the cable, and - a guide means, through which the first cable portion can be guided to the inner cage or vice versa, being provided on the outer cage,
A transmission comprising a transmission oil composition and sliding members being in sliding contact with each other in presence of the transmission oil composition, the transmission being either a continuously variable transmission or an automatic transmission, characterized in that: at least one of the sliding members comprises: a base material having a sliding section; and a hard carbon thin film coated at a sliding surface of the sliding section of the base material, the hard carbon thin film being formed of hydrogen-free amorphous carbon, the transmission oil composition contains a friction modifier, wherein the friction modifier is present in an amount of 0.05 to 3.0 % by mass based on the total amount of the transmission oil composition, wherein the friction modifier is an aliphatic amine compound having a hydrocarbon chain having a carbon number ranging from 6 to 30, and wherein the other of the sliding members has a sliding surface formed of an iron-based material or an aluminum alloy. at least one of the sliding members comprises: a base material having a sliding section; and a hard carbon thin film coated at a sliding surface of the sliding section of the base material, the hard carbon thin film being formed of hydrogen-free amorphous carbon, the transmission oil composition contains a friction modifier, wherein the friction modifier is present in an amount of 0.05 to 3.0 % by mass based on the total amount of the transmission oil composition, wherein the friction modifier is an aliphatic amine compound having a hydrocarbon chain having a carbon number ranging from 6 to 30, and wherein the other of the sliding members has a sliding surface formed of an iron-based material or an aluminum alloy.
A method for manufacturing a solar cell, comprising: mirror-polishing a front surface and a back surface of a semiconductor substrate having a p-type dopant; texturing the front surface of the semiconductor substrate by using a dry etching method, wherein the front surface of the semiconductor substrate after the texturing has a surface roughness larger than that of the back surface; forming an emitter layer by ion-implanting an n-type dopant into the front surface of the semiconductor substrate; forming a back passivation film including a p-type oxidation film on a back surface of the semiconductor substrate; and forming a first electrode (24, 240) electrically connected to the emitter layer and a second electrode (34, 340) being in partial contact with the back surface of the semiconductor substrate, wherein the dry etching method for texturing the front surface of the semiconductor substrate comprises a reactive ion etching method, characterized in that the front surface of the semiconductor substrate after the texturing has a surface roughness of about 1 μm or less, forming the second electrode (34, 340) comprises: forming a second electrode film on the back passivation film; electrically connecting the second electrode film to the semiconductor substrate; and firing the second electrode film, and in the firing, materials constituting of a p-type dopant of the back passivation film and the second electrode (34, 340) is diffused into the semiconductor substrate to form a back surface field layer having a p-type at an entire portion of the back surface of the semiconductor substrate, wherein a portion of the back surface field layer is disposed between the semiconductor substrate and the back passivation film, and another portion of the back surface field layer is disposed between the semiconductor substrate and the second electrode. mirror-polishing a front surface and a back surface of a semiconductor substrate having a p-type dopant; texturing the front surface of the semiconductor substrate by using a dry etching method, wherein the front surface of the semiconductor substrate after the texturing has a surface roughness larger than that of the back surface; forming an emitter layer by ion-implanting an n-type dopant into the front surface of the semiconductor substrate; forming a back passivation film including a p-type oxidation film on a back surface of the semiconductor substrate; and forming a first electrode (24, 240) electrically connected to the emitter layer and a second electrode (34, 340) being in partial contact with the back surface of the semiconductor substrate, forming a second electrode film on the back passivation film; electrically connecting the second electrode film to the semiconductor substrate; and firing the second electrode film, and in the firing, materials constituting of a p-type dopant of the back passivation film and the second electrode (34, 340) is diffused into the semiconductor substrate to form a back surface field layer having a p-type at an entire portion of the back surface of the semiconductor substrate,