mhurhangee/ep-ind-claims huggingface dataset:
Multiple-stage transmission of planetary design in a housing for a vehicle with at least one electric machine and with a first, a second and a third planetary gear set (RS1, RS2, RS3), it being possible for a drive (An) to be connected via at least one first shifting element to a first shaft, and an output (Ab) being connected to a second shaft, a third, fourth, fifth and sixth shaft (3, 4, 5, 6) and at least one second, third, fourth, fifth and sixth shifting element (K1, K2, K3, K4, B1) being provided, by way of the actuation of which at least eight forward gears (G1, G2, G3, G4, G5, G6, G7, G8) can be realized, a first element of the first planetary gear set being connected to the housing, the first shaft being connected fixedly to a second element of the first planetary gear set, a rotor of the electric machine being connected to a third element of the first planetary gear set, and it being possible for the third element of the first planetary gear set to be connected via the fourth or the fifth shifting element (K3, K4) to at least one element of one of the remaining planetary gear sets (RS2, RS3), characterized in that the first element of the first planetary gear set is a sun gear, in that the second element of the first planetary gear set is a planetary gear carrier when the first planetary gear set is configured as a negative planetary gear set, in that the second element of the first planetary gear set is an internal gear when the first planetary gear set is configured as a positive planetary gear set, in that the third element of the first planetary gear set is an internal gear when the first planetary gear set is configured as a negative planetary gear set, and in that the third element of the first planetary gear set is a planetary gear carrier when the first planetary gear set is configured as a positive planetary gear set.
Combustion apparatus for a solid fuel comprising a stove having a body, the body including a firebox defining a combustion chamber for burning solid fuel wherein the firebox has a primary inlet for primary air located below the combustion chamber and a secondary inlet, for secondary air at an upper end of the combustion chamber, the secondary inlet for re-combustion of combustion products with secondary air in the combustion chamber, an outlet for combustion products at the upper end of the combustion chamber, and a baffle at the upper end of the combustion chamber, wherein the baffle is angled downwardly and arranged to extend below the secondary inlet, so that the secondary air flow is directed downwards across the inside face of the door by the baffle, which is also angled downwardly and extends below the outlet, characterized by the body being made of fired refractory carbide material and by the secondary inlet being separate from the primary inlet.
Filter assembly for gaseous media having a plurality of structurally identical, cylindrical filters with respectively a central axis and an open base, and with a pipe arranged opposite the open bases of the filters through which there is flow in a flow direction in longitudinal direction and which has a group (2, 2') of lateral openings assigned to each filter, wherein each group (2, 2') of these lateral openings is assigned to the open inlet region or base of a filter, whereby gas flowing out pulse-wise through the openings may reach the interior of each filter and flow through the filter material there, whereby contaminants on the outer side of the filters adhering thereto are released, characterised in that each group (2, 2') has at least three openings, and the distance of the openings of each group (2, 2') furthest away from one another in flow direction is at least three times the distance of the openings of each group (2, 2') furthest away from one another transversely to the flow direction, measured over the circumference of the pipe.
A method for additive manufacturing, comprising: forming at least one first layer structure; forming a second layer structure on the first layer structure and a first support structure; removing the first support structure from the second layer structure; characterized by forming, before said removing the first support structure, a third layer structure on the second layer structure and a second support structure, the second support structure being located at least partially on the first support structure; and removing the second support structure from the third layer structure, wherein said forming the at least one first layer structure includes forming a chassis bottom; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom, the fender defining a fender top opening; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening. forming at least one first layer structure; forming a second layer structure on the first layer structure and a first support structure; removing the first support structure from the second layer structure; characterized by forming, before said removing the first support structure, a third layer structure on the second layer structure and a second support structure, the second support structure being located at least partially on the first support structure; and removing the second support structure from the third layer structure, wherein said forming the at least one first layer structure includes forming a chassis bottom; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom, the fender defining a fender top opening; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening. said forming the at least one first layer structure includes forming a chassis bottom; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom, the fender defining a fender top opening; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening.
Current-assisted photonic demodulator adapted to detect light radiation of interest, comprising: ∘ a detection portion, extending vertically between a first face and a second face both parallel to a main plane, and comprising: • at least two p-doped regions, intended to generate and modulate a drift current in the detection portion, lying flush with the first face and located on either side of a central zone (Zc) of the first face F1; • at least two n-doped regions, adapted to collect the minority charge carriers photogenerated during the absorption of the light radiation of interest in the detection portion, lying flush with the first face and located adjacent to the p-doped regions; ∘ a dielectric passivation layer, made of an electrically insulating material, and covering the first face; ∘ modulation electrodes (M1, M2), passing through the dielectric passivation layer and in contact with the p-doped regions; and collection electrodes (C1, C2), passing through the dielectric passivation layer and in contact with the n-doped regions; ∘ characterised in that it comprises intermediate electrodes (I1, I2), intended to be negatively biased, partly passing through the dielectric passivation layer and spaced apart from the first face by a non-zero distance, each being located, in projection onto the main plane, between one of the p-doped regions and the adjacent n-doped region. ∘ a detection portion, extending vertically between a first face and a second face both parallel to a main plane, and comprising: • at least two p-doped regions, intended to generate and modulate a drift current in the detection portion, lying flush with the first face and located on either side of a central zone (Zc) of the first face F1; • at least two n-doped regions, adapted to collect the minority charge carriers photogenerated during the absorption of the light radiation of interest in the detection portion, lying flush with the first face and located adjacent to the p-doped regions; • at least two p-doped regions, intended to generate and modulate a drift current in the detection portion, lying flush with the first face and located on either side of a central zone (Zc) of the first face F1; • at least two n-doped regions, adapted to collect the minority charge carriers photogenerated during the absorption of the light radiation of interest in the detection portion, lying flush with the first face and located adjacent to the p-doped regions; ∘ a dielectric passivation layer, made of an electrically insulating material, and covering the first face; ∘ modulation electrodes (M1, M2), passing through the dielectric passivation layer and in contact with the p-doped regions; and collection electrodes (C1, C2), passing through the dielectric passivation layer and in contact with the n-doped regions; ∘ characterised in that it comprises intermediate electrodes (I1, I2), intended to be negatively biased, partly passing through the dielectric passivation layer and spaced apart from the first face by a non-zero distance, each being located, in projection onto the main plane, between one of the p-doped regions and the adjacent n-doped region.
A humeral rod for a humeral implant of a shoulder prosthesis, said integral humeral rod comprising: - an elongate-shaped diaphyseal portion, extending along a diaphyseal axis and shaped so as to be implanted in a medullary cavity of a humerus; - a metaphyseal portion shaped so as to bear on a resected metaphyseal portion of the humerus, wherein the metaphyseal portion is in the form of a flared corolla which extends the diaphyseal portion up to a planar proximal face centered on a central axis, said central axis being orthogonal to said proximal face and inclined with respect to the diaphyseal axis; said humeral rod being characterized in that: - the diaphyseal portion has, orthogonally to the diaphyseal axis, an octagonal cross-section with convex rounded angles; - the metaphyseal portion has, orthogonally to the central axis, an octagonal cross-section with convex rounded angles; so that the humeral rod has a peripheral surface provided with: - eight flat lateral facets which continuously extend from the diaphyseal portion to the metaphyseal portion, - eight rounded fillets which continuously extend from the diaphyseal portion to the metaphyseal portion, each rounded fillet being interposed between two adjacent lateral facets; and in that, on the metaphyseal portion, the rounded fillets progressively widen and the lateral facets progressively narrow from the diaphyseal portion in the direction of the proximal face. - an elongate-shaped diaphyseal portion, extending along a diaphyseal axis and shaped so as to be implanted in a medullary cavity of a humerus; - a metaphyseal portion shaped so as to bear on a resected metaphyseal portion of the humerus, wherein the metaphyseal portion is in the form of a flared corolla which extends the diaphyseal portion up to a planar proximal face centered on a central axis, said central axis being orthogonal to said proximal face and inclined with respect to the diaphyseal axis; - the diaphyseal portion has, orthogonally to the diaphyseal axis, an octagonal cross-section with convex rounded angles; - the metaphyseal portion has, orthogonally to the central axis, an octagonal cross-section with convex rounded angles; - eight flat lateral facets which continuously extend from the diaphyseal portion to the metaphyseal portion, - eight rounded fillets which continuously extend from the diaphyseal portion to the metaphyseal portion, each rounded fillet being interposed between two adjacent lateral facets;
A cleaning liquid for inhibiting pathogens, the cleaning liquid comprising: benzalkonium chloride, didecyl dimethyl ammonium chloride, poly hexamethylene biguanide hydrochloride, bronopol, and p-chloro-m-cresol. benzalkonium chloride, didecyl dimethyl ammonium chloride, poly hexamethylene biguanide hydrochloride, bronopol, and p-chloro-m-cresol.
A tire vulcanization mold comprising: a molding surface for molding a tire during vulcanization molding, wherein the molding surface includes a first region in which a plurality of recesses for forming a plurality of projections on a surface of the tire are provided, in the first region, at least two of the recesses are arranged per mm 2, each of the recesses includes a side wall surface, a bottom surface, and a virtual recess central axis extending in a depth direction of the recess, and in a cross-sectional view of the recess including the virtual recess central axis, the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface, and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess, and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess, the peak portion being disposed on the virtual recess central axis. a molding surface for molding a tire during vulcanization molding, wherein the molding surface includes a first region in which a plurality of recesses for forming a plurality of projections on a surface of the tire are provided, in the first region, at least two of the recesses are arranged per mm 2, each of the recesses includes a side wall surface, a bottom surface, and a virtual recess central axis extending in a depth direction of the recess, and in a cross-sectional view of the recess including the virtual recess central axis, the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface, and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess, and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess, the peak portion being disposed on the virtual recess central axis. the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface, and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess, and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess, the peak portion being disposed on the virtual recess central axis.
- Method for manufacturing a sensing tip for a temperature sensing device, said method comprising the steps of: a1) providing with a thermocouple presenting a welding, named hot junction, linking a first longitudinal end of a first metal wire of the thermocouple and a first longitudinal end of a second metal wire of the thermocouple; the first metal wire and the second metal wire being made of distinct materials and so chosen to form the thermocouple, and; a2) providing with an empty cylinder-shaped container presenting one closed longitudinal end, named distal end and one open longitudinal end, named proximal end opposite to said distal end, then; a3) disposing the thermocouple into the cylinder-shaped container, said hot junction of the thermocouple being positioned at said distal end, then; b) filling a free space extending inside the cylinder-shaped container with a quantity of at least one mineral powdered material, at least one part of the at least one mineral powdered material being a thermal conductive ceramic powder, said thermal conductive ceramic powder forming a layer, named distal layer, of said thermal conductive ceramic powder at least at said distal end; and c) adding a layer contacting the distal layer by completing the filling of the free space of the cylinder-shaped container with a quantity of a mineral powdered material distinct of said thermal conductive ceramic powder and with lower thermal conductivity than the thermal conductivity of the thermal conductive ceramic powder forming the layer of the thermal conductive ceramic powder, thus forming the sensing tip. a1) providing with a thermocouple presenting a welding, named hot junction, linking a first longitudinal end of a first metal wire of the thermocouple and a first longitudinal end of a second metal wire of the thermocouple; the first metal wire and the second metal wire being made of distinct materials and so chosen to form the thermocouple, and; a2) providing with an empty cylinder-shaped container presenting one closed longitudinal end, named distal end and one open longitudinal end, named proximal end opposite to said distal end, then; a3) disposing the thermocouple into the cylinder-shaped container, said hot junction of the thermocouple being positioned at said distal end, then; b) filling a free space extending inside the cylinder-shaped container with a quantity of at least one mineral powdered material, at least one part of the at least one mineral powdered material being a thermal conductive ceramic powder, said thermal conductive ceramic powder forming a layer, named distal layer, of said thermal conductive ceramic powder at least at said distal end; and c) adding a layer contacting the distal layer by completing the filling of the free space of the cylinder-shaped container with a quantity of a mineral powdered material distinct of said thermal conductive ceramic powder and with lower thermal conductivity than the thermal conductivity of the thermal conductive ceramic powder forming the layer of the thermal conductive ceramic powder,
A method of controlling a robot, wherein, in an automatic mode of operation ("AUTOMATIK"), protective monitoring is carried out, in a set-up mode of operation ("EINRICHT"), which enables operation of the robot only when an enabling device is actuated, a manual control input (3, 6) is enabled, and in a remote access mode of operation ("FERNZUGRIFF"), the protective monitoring is carried out and a manual control input (3, 5, 7) is enabled, characterised in that, in the remote access mode of operation, in which a manual operation of the robot and / or a program-controlled operation of the robot, in particular a speed (v), is limited, an operation of the robot takes place independently of the enabling device.
A multi-layered transparency (2.1, 2.2) for an aircraft cockpit, particularly a multi-layered window for a helicopter cockpit, comprising: - one core layer made of a polymer of either polycarbonate or microcrystalline polyamide (mcPA), - at least one foil extruded, adhesive interlayer film (3.1, 3.2, 3.3) unilaterally bonded to said at least one core layer, - at least one outer top layer (5.1, 5.2) made of microcrystalline polyamide (mcPA), preferably containing additives, said at least one outer top layer (5.1, 5.2) being unilaterally attached to said at least one foil extruded adhesive interlayer film (3.1, 3.2, 3.3) distal to said at least one core layer, and - a scratch resistant outer top coating (4.1, 4.2), provided unilaterally to said at least one outer top layer (5.1, 5.2) distal to said at least one foil extruded adhesive interlayer film (3.1, 3.2, 3.3), characterized in that the at least one foil extruded adhesive interlayer film (3.1, 3.2, 3.3) comprises two foil extruded films (7.1, 7.2) with a functional layer (8, 9) in between. - one core layer made of a polymer of either polycarbonate or microcrystalline polyamide (mcPA), - at least one foil extruded, adhesive interlayer film (3.1, 3.2, 3.3) unilaterally bonded to said at least one core layer, - at least one outer top layer (5.1, 5.2) made of microcrystalline polyamide (mcPA), preferably containing additives, said at least one outer top layer (5.1, 5.2) being unilaterally attached to said at least one foil extruded adhesive interlayer film (3.1, 3.2, 3.3) distal to said at least one core layer, and - a scratch resistant outer top coating (4.1, 4.2), provided unilaterally to said at least one outer top layer (5.1, 5.2) distal to said at least one foil extruded adhesive interlayer film (3.1, 3.2, 3.3),
A method for forming a memory device, comprising: forming a resistance-switching layer over a first electrode; forming a second electrode over the resistance-switching layer; applying a forming voltage to the resistance-switching layer such that the resistance of the resistance-switching layer is decreased; after the forming voltage is applied, applying an initial reset voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is increased; after the initial reset voltage is applied, applying a first set voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is decreased; after the first set voltage is applied, applying a second reset voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is increased characterized by applying a second set voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is decreased, wherein the second set voltage is lower than the first set voltage after the second reset voltage is applied, and baking the memory device layer after the second set voltage is applied to the first electrode or the second electrode. forming a resistance-switching layer over a first electrode; forming a second electrode over the resistance-switching layer; applying a forming voltage to the resistance-switching layer such that the resistance of the resistance-switching layer is decreased; after the forming voltage is applied, applying an initial reset voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is increased; after the initial reset voltage is applied, applying a first set voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is decreased; after the first set voltage is applied, applying a second reset voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is increased characterized by applying a second set voltage to the first electrode or the second electrode such that the resistance of the resistance-switching layer is decreased, wherein the second set voltage is lower than the first set voltage after the second reset voltage is applied, and baking the memory device layer after the second set voltage is applied to the first electrode or the second electrode.