mhurhangee/ep-ind-claims huggingface dataset:
A light assembly for distributing light in a preferred direction, the light assembly comprising: a light emitter having an emitter axis; a lens, positioned over the light emitter, the lens having an outer surface and an inner surface that defines a lens cavity; a separate optical element attached to the lens, comprising at least one optical element surface that extends towards the light emitter, wherein the optical element terminates in a tip and wherein a portion of the optical element extends within the lens cavity toward the light emitter and is shaped to refract light emitted from the light emitter toward a non-preferred direction so that the refracted light exits the lens toward the preferred direction; and a reflector positioned within the lens cavity, wherein the reflector is shaped to reflect light emitted from the light emitter toward the non-preferred direction so that the reflected light exits the lens toward the preferred direction. a light emitter having an emitter axis; a lens, positioned over the light emitter, the lens having an outer surface and an inner surface that defines a lens cavity; a separate optical element attached to the lens, comprising at least one optical element surface that extends towards the light emitter, wherein the optical element terminates in a tip and wherein a portion of the optical element extends within the lens cavity toward the light emitter and is shaped to refract light emitted from the light emitter toward a non-preferred direction so that the refracted light exits the lens toward the preferred direction; and a reflector positioned within the lens cavity, wherein the reflector is shaped to reflect light emitted from the light emitter toward the non-preferred direction so that the reflected light exits the lens toward the preferred direction.
A spinner wrench for use to spin a drill pipe or other tubular, the drill pipe or other tubular having an axis when received within the wrench, the wrench comprising: three or more roller assemblies, the three or more roller assemblies pivotable between a first open position forming an opening for receiving the drill pipe or other tubular and a second closed position encompassing the drill pipe or other tubular; each roller assembly having a powered roller mounted thereon, each powered roller for contacting the drill pipe or other tubular, wherein the contacting creates a clamping force (Fcl) between the powered rollers and the drill pipe or other tubular; characterised by three or more ram assemblies, each ram assembly connected to a single one of said powered rollers for actuating each powered roller into contact with the drill pipe or other tubular, each dedicated ram assembly actuating each powered roller along a ram axis in a plane perpendicular to the drill pipe or other tubular axis but not intersecting the axis of the drill pipe or other tubular, wherein the actuation of said ram assemblies creates a piston force (Fp); wherein the clamping force (Fcl) is offset from the piston force (Fp) of the respective ram axis. three or more roller assemblies, the three or more roller assemblies pivotable between a first open position forming an opening for receiving the drill pipe or other tubular and a second closed position encompassing the drill pipe or other tubular; each roller assembly having a powered roller mounted thereon, each powered roller for contacting the drill pipe or other tubular, wherein the contacting creates a clamping force (Fcl) between the powered rollers and the drill pipe or other tubular; characterised by three or more ram assemblies, each ram assembly connected to a single one of said powered rollers for actuating each powered roller into contact with the drill pipe or other tubular, each dedicated ram assembly actuating each powered roller along a ram axis in a plane perpendicular to the drill pipe or other tubular axis but not intersecting the axis of the drill pipe or other tubular, wherein the actuation of said ram assemblies creates a piston force (Fp); wherein the clamping force (Fcl) is offset from the piston force (Fp) of the respective ram axis.
Shoehorn device with at least one base body unit, with at least one fastening unit, which is arranged on the base body unit, for a fastening of the base body unit to an external unit, with at least one dressing equipment unit that is connectable to the base body unit, the dressing equipment unit being embodied as a shoehorn, with at least one securing unit, which is configured to connect the dressing equipment unit to the base body unit, and with at least one reset unit that is configured to move at least one securing element of the securing unit into an initial position of the securing element, the securing unit comprising at least the securing element, which is connected to the dressing equipment unit and to the base body unit, wherein the shoe horn device comprises at least one adjusting unit for an adjustment of a dimension of a reset force of the reset unit, wherein the reset unit is arranged in the base body unit at least to a large extent, the securing element being embodied so as to be extractable out of the base body unit, wherein the securing unit is configured to connect the dressing equipment unit to the base body unit in a loss-proof manner, wherein the fastening unit comprises at least one receiving element for receiving a fastening element, at least a fastening element embodied as a screw, which can be fastened to the external unit, which is arranged on the base body unit and is configured for a fastening of the base body unit to the external unit, and/or comprises at least one fastening element that is embodied as a gluing element or a fastening element that is embodied as a hook-and-loop element, by means of which the base body unit can be fastened to the external unit. with at least one securing unit, which is configured to connect the dressing equipment unit to the base body unit, and with at least one reset unit that is configured to move at least one securing element of the securing unit into an initial position of the securing element, the securing unit comprising at least the securing element, which is connected to the dressing equipment unit and to the base body unit, wherein the shoe horn device comprises at least one adjusting unit for an adjustment of a dimension of a reset force of the reset unit, wherein the reset unit is arranged in the base body unit at least to a large extent, the securing element being embodied so as to be extractable out of the base body unit, wherein the securing unit is configured to connect the dressing equipment unit to the base body unit in a loss-proof manner, wherein the fastening unit comprises at least one receiving element for receiving a fastening element, at least a fastening element embodied as a screw, which can be fastened to the external unit, which is arranged on the base body unit and is configured for a fastening of the base body unit to the external unit, and/or comprises at least one fastening element that is embodied as a gluing element or a fastening element that is embodied as a hook-and-loop element, by means of which the base body unit can be fastened to the external unit.
Use of a compound represented by the following Formula 1 as a bile salt adjuvant for an animal feed to increase digestion and utilization of fat present in an animal feed of a livestock animal wherein the animal feed comprises 5 to 30% by weight of crude protein; 2 to 20% by weight of crude fat; 2 to 20% by weight of crude fiber; 2 to 25% by weight of crude ash; 0.1 to 10% by weight of calcium; 0.1 to 5% by weight of lysine; 3 to 50% by weight of water; and 0.01 to 5% by weight of the compound of Formula 1 wherein R is C 17 H 35 or C 15 H 31., and n is an integer of 2.
Power socket assembly of a charging station for recharging the batteries of electric vehicles, comprising: a lid hinged about an axis (y) so as to cover a socket; a first locking element for locking a plug inserted in the socket during recharging; a second locking element for releasably locking the lid in a closed position covering the socket; actuator means for moving the first and the second locking elements between locked positions, in which the locking elements are engaged with the plug and the lid, and released positions, in which the locking elements are disengaged from the plug and the lid; the actuator means comprising a single linear actuator, the first locking element and the second locking element being both integral with a single latch controlled by the actuator, the first locking element extending towards the axis (y) and the second locking element extending in an opposite direction, away from the axis (y); characterized in that the locking elements (24, 21) are configured in such a way that when the first element is in the locked position, the second element is in the released position, and vice versa. a lid hinged about an axis (y) so as to cover a socket; a first locking element for locking a plug inserted in the socket during recharging; a second locking element for releasably locking the lid in a closed position covering the socket; actuator means for moving the first and the second locking elements between locked positions, in which the locking elements are engaged with the plug and the lid, and released positions, in which the locking elements are disengaged from the plug and the lid; the actuator means comprising a single linear actuator, the first locking element and the second locking element being both integral with a single latch controlled by the actuator, the first locking element extending towards the axis (y) and the second locking element extending in an opposite direction, away from the axis (y); characterized in that the locking elements (24, 21) are configured in such a way that when the first element is in the locked position, the second element is in the released position, and vice versa.
A sensor, comprising: a substrate having a curved surface; a piezoelectric element; and an adhesive disposed between the piezoelectric element and the curved surface along a vertical direction and attaching the piezoelectric element to the substrate, the adhesive has an exterior bond surface that has a tapered shape along the vertical direction from the piezoelectric element to the curved surface, wherein the adhesive has a planar side and a curved side opposite the planar side, the planar side abuts an inner surface of the piezoelectric element and the curved side abuts the curved surface, and wherein the exterior bond surface extends between the planar side and the curved side and defines a lateral extent of the adhesive in a width direction extending perpendicular to the vertical direction, characterized in that the lateral extent of the adhesive is greater at the planar side attached to the piezoelectric element than at the curved side attached to the curved surface. a substrate having a curved surface; a piezoelectric element; and an adhesive disposed between the piezoelectric element and the curved surface along a vertical direction and attaching the piezoelectric element to the substrate, the adhesive has an exterior bond surface that has a tapered shape along the vertical direction from the piezoelectric element to the curved surface, wherein the adhesive has a planar side and a curved side opposite the planar side, the planar side abuts an inner surface of the piezoelectric element and the curved side abuts the curved surface, and wherein the exterior bond surface extends between the planar side and the curved side and defines a lateral extent of the adhesive in a width direction extending perpendicular to the vertical direction, characterized in that the lateral extent of the adhesive is greater at the planar side attached to the piezoelectric element than at the curved side attached to the curved surface.
A graphene-heating and heat-preserving sleeve for an oilfield petroleum gathering pipeline, comprising a high-temperature-resistant insulating layer, a graphene layer, electrode layers, a high-temperature-resistant ceramic, a waterproof and anti-static heat preservation layer and a housing, wherein the high-temperature-resistant insulating layer, the whole of the graphene layer and the electrode layers, the high-temperature-resistant ceramic layer, the waterproof and anti-static heat preservation layer, and the housing are attached together in sequence; the graphene-heating and heat-preserving sleeve comprises two semi-cylindrical parts; the two semi-cylindrical parts of the graphene-heating and heat-preserving sleeve are coupled together, so that the petroleum gathering pipeline is wrapped in use in the graphene-heating and heat-preserving sleeve; each of two ends of each semi-cylindrical part is provided with a semi-circular sealing cover perpendicular to an axis of the two semi-cylindrical parts; a semi-cylindrical hole is formed in a circle center of the semi-circular sealing cover; an inner side of the semi-circular sealing cover is covered with another waterproof and anti-static heat preservation layer; longitudinal sealing clamping grooves are respectively formed in contacting surfaces, parallel to the axis of the two semi-cylindrical parts, of the two semi-cylindrical parts of the graphene-heating and heat-preserving sleeve; and the two semi-cylindrical parts of the graphene-heating and heat-preserving sleeve are coupled in a circumferential direction by using two or more hasps.
Method of allocating calls of a lift installation with at least one lift and at least one cage (1, 1') per lift, wherein at least one call to a destination storey is input by at least one passenger and a plurality of passengers is moved in accordance with input calls by the cage (1, 1') in at least one journey from at least one input storey to at least one destination storey, characterised in that for the input calls of the journey at least one start zone (9, 9') with one or more input storeys in determined; that for the input calls of the journey at least one destination zone (10, 10') with one or more destination storeys is determined; and that if at least one number of stops in the start zone (9, 9') and/or in the destination zone (10, 10') is greater than one this number of stops is reduced.
Motor vehicle fuel storage system comprising: - a fuel tank, - a canister fluidically connected to the fuel tank and configured to receive a mixture of air and hydrocarbon vapours from the fuel tank, - at least one separation unit fluidically connected to the canister and the fuel tank, the separation unit being configured to receive the mixture of air and hydrocarbon vapours from the canister and to separate said mixture into a hydrocarbon-rich fraction and a hydrocarbon-poor fraction, the hydrocarbon-rich fraction being sent to the fuel tank, - means of return of the hydrocarbon-poor fraction to the canister, - a purge pump of the canister arranged between the canister and the separation unit, - at least one solenoid valve arranged between the purge pump and the separation unit, characterised in that said at least one solenoid valve is configured to selectively send the mixture of air and hydrocarbon vapours either to the separation unit or directly to the fuel tank. - a fuel tank, - a canister fluidically connected to the fuel tank and configured to receive a mixture of air and hydrocarbon vapours from the fuel tank, - at least one separation unit fluidically connected to the canister and the fuel tank, the separation unit being configured to receive the mixture of air and hydrocarbon vapours from the canister and to separate said mixture into a hydrocarbon-rich fraction and a hydrocarbon-poor fraction, the hydrocarbon-rich fraction being sent to the fuel tank, - means of return of the hydrocarbon-poor fraction to the canister, - a purge pump of the canister arranged between the canister and the separation unit, - at least one solenoid valve arranged between the purge pump and the separation unit, characterised in that said at least one solenoid valve is configured to selectively send the mixture of air and hydrocarbon vapours either to the separation unit or directly to the fuel tank.
A compound of formula: wherein R 2 is -(CH 2) n -T or C 1-5 alkyl; R 6 is selected from the group consisting of -H, -OH, -NH 2, -OC R or -OCH 2 OC R; R 8 is selected from the group consisting of H or lower cycloalkyl; R 11 is selected from the group consisting of a peptide, an amino acid, a saccharide, -O-R A, - OC O-R A, -N(R B) 2, or -NHC OR A; wherein R 3 and R 4 are both H or both C 1-2 alkyl; R A is C 1-4 alkyl, substituted C 1-4 alkyl, -CH 2 -R C or -CH 2 -V-R C; each R B is independently -H or -R A; R C is aryl, heteroaryl, substituted aryl or substituted heteroaryl; L' is a linker selected from each R X is independently H, halogen or NO 2 each R Y is independently H, or Me each R Z is independently NH, NMe, O or S n is 0 to 3; each R is independently a C 1-7 alkyl; T is aryl, heteroaryl, substituted aryl, substituted heteroaryl or cycloalkyl; V is -S- or -O-; and the dashed bonds indicate the presence of an optional ring, which may be saturated or unsaturated. wherein R 2 is -(CH 2) n -T or C 1-5 alkyl; R 6 is selected from the group consisting of -H, -OH, -NH 2, -OC R or -OCH 2 OC R; R 8 is selected from the group consisting of H or lower cycloalkyl; R 11 is selected from the group consisting of a peptide, an amino acid, a saccharide, -O-R A, - OC O-R A, -N(R B) 2, or -NHC OR A; wherein R 3 and R 4 are both H or both C 1-2 alkyl; R A is C 1-4 alkyl, substituted C 1-4 alkyl, -CH 2 -R C or -CH 2 -V-R C; each R B is independently -H or -R A; R C is aryl, heteroaryl, substituted aryl or substituted heteroaryl; L' is a linker selected from each R X is independently H, halogen or NO 2 each R Y is independently H, or Me each R Z is independently NH, NMe, O or S n is 0 to 3; each R is independently a C 1-7 alkyl; T is aryl, heteroaryl, substituted aryl, substituted heteroaryl or cycloalkyl; V is -S- or -O-; and the dashed bonds indicate the presence of an optional ring, which may be saturated or unsaturated.
A light-emitting toy assembly, comprising: a field generator that includes a first transmitting coil (106, 306) configured to inductively transmit energy; and an object that includes: a body, at least a part of which is translucent; at least one receiving coil being configured to inductively receive energy from the first transmitting coil, and a lighting element having at least one light emitting diode that is configured to receive a current from a corresponding one of the at least one receiving coils, wherein at least one of the first transmitting coil and the object is movable with respect to the other of the first transmitting coil and the object, and a change in a rotational orientation of at least one of the first transmitting coil and the object alters a lighting state of the lighting element, characterized in that: the at least one receiving coil comprises two or more receiving coils, and the at least one light emitting diode comprises two or more light emitting diodes, each of the two or more light emitting diodes being connected to a different one of the two or more receiving coils. a field generator that includes a first transmitting coil (106, 306) configured to inductively transmit energy; and an object that includes: a body, at least a part of which is translucent; at least one receiving coil being configured to inductively receive energy from the first transmitting coil, and a lighting element having at least one light emitting diode that is configured to receive a current from a corresponding one of the at least one receiving coils, a body, at least a part of which is translucent; at least one receiving coil being configured to inductively receive energy from the first transmitting coil, and a lighting element having at least one light emitting diode that is configured to receive a current from a corresponding one of the at least one receiving coils, wherein at least one of the first transmitting coil and the object is movable with respect to the other of the first transmitting coil and the object, and a change in a rotational orientation of at least one of the first transmitting coil and the object alters a lighting state of the lighting element, characterized in that: the at least one receiving coil comprises two or more receiving coils, and the at least one light emitting diode comprises two or more light emitting diodes, each of the two or more light emitting diodes being connected to a different one of the two or more receiving coils. the at least one receiving coil comprises two or more receiving coils, and the at least one light emitting diode comprises two or more light emitting diodes, each of the two or more light emitting diodes being connected to a different one of the two or more receiving coils.
Feeder device for feeding aqueous acrolein solution to a main ballast water line of an apparatus for treating ballast water for ships for treating ballast water with acrolein, wherein the feeder device comprises an annular nozzle which is dimensioned for usage in the main ballast water line, wherein the annular nozzle comprises a nozzle ring comprising a plurality of nozzle openings distributed over the interior circumference of the nozzle ring, characterized in that the feeding device additionally comprises a flow interfering device arranged at the ring nozzle which stream interfering device is located downstream of the ring nozzle in direction of a main ballast water stream flowing in the main ballast water line, wherein the flow interfering device comprises a mixing face plate having an opening for the main ballast water stream, wherein the opening has a smaller opening area than the free inner cross section area of the main ballast water line.
A method for tuning IGP metrics for a network domain, comprising: receiving, by one or more processors, a topology, G, of a network and a set of flows, F, wherein the topology G equals V, E, where V is a set of nodes on the domain network and E is the set of edges between each node in the set of nodes on the domain network; receiving, by the one or more processors, an objective function; optimizing, by the one or more processors using reinforcement learning, the objective function based on the received topology and the one or more flows F; and being characterized by: determining, by a routing simulator, a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator. receiving, by one or more processors, a topology, G, of a network and a set of flows, F, wherein the topology G equals V, E, where V is a set of nodes on the domain network and E is the set of edges between each node in the set of nodes on the domain network; receiving, by the one or more processors, an objective function; optimizing, by the one or more processors using reinforcement learning, the objective function based on the received topology and the one or more flows F; and being characterized by: determining, by a routing simulator, a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator. determining, by a routing simulator, a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator.