mhurhangee/ep-ind-claims huggingface dataset:
Conveyor system for piece goods, in particular air freight containers and air freight pallets, wherein the piece goods can be transported along a transport path with the aid of at least one drive means, which comprises one or more individual drives, comprising: a) an activation electronics unit, which activates the at least one drive means; b) a logic module associated with the activation electronics unit, which is adapted to detect a disturbance in the conveyor system in an automated manner, wherein the disturbance is a blocking and/or wedging of at least one piece goods item; c) one or more detectors, by means of which the disturbance can be detected; wherein d) the activation electronics unit is adapted to activate the one or more individual drives of the drive means in response to a detected disturbance in the conveyor system, in such a manner that the disturbance can be resolved in an automated manner by targeted activation of one or more of the individual drives and thus moving one or more piece goods; e) the activation electronics unit is also adapted to activate the one or more drives manually by means of an actuation element; f) it is possible for activation of the one or more drives to be determined in an automated manner by an algorithm, wherein the algorithm is adaptive, preferably iteratively adaptive; g) the activation electronics unit is adapted to learn the algorithm from manual actuation of the actuation elements. a) an activation electronics unit, which activates the at least one drive means; b) a logic module associated with the activation electronics unit, which is adapted to detect a disturbance in the conveyor system in an automated manner, wherein the disturbance is a blocking and/or wedging of at least one piece goods item; c) one or more detectors, by means of which the disturbance can be detected; wherein d) the activation electronics unit is adapted to activate the one or more individual drives of the drive means in response to a detected disturbance in the conveyor system, in such a manner that the disturbance can be resolved in an automated manner by targeted activation of one or more of the individual drives and thus moving one or more piece goods; e) the activation electronics unit is also adapted to activate the one or more drives manually by means of an actuation element; f) it is possible for activation of the one or more drives to be determined in an automated manner by an algorithm, wherein the algorithm is adaptive, preferably iteratively adaptive; g) the activation electronics unit is adapted to learn the algorithm from manual actuation of the actuation elements.
A dual-layer ablation balloon (536; 736) comprising: an inner balloon (554; 754) including an internal cavity configured to receive a cryogenic fluid and facilitate a state transfer of the cryogenic fluid into cryogenic gas; an outer balloon (555;755) that encapsulates the inner balloon (554; 754); an interstitial space (557; 757) between the inner balloon (554; 754) and the outer balloon (555; 755); and an exhaust lumen (559; 759) in fluid communication with the internal cavity of the inner balloon (554; 754), the exhaust lumen (559; 759) configured to exhaust cryogenic gas out of the internal cavity; characterized in that the dual-layer ablation balloon further comprises an adaptor (530; 730) that mechanically couples the inner balloon (554; 754) and the outer balloon (555; 755) to a catheter shaft and configured to radially and longitudinally offset proximal portions of the inner balloon (554; 754) and the outer balloon (555; 755); and a spacer coupled between the proximal portion of the inner balloon (554; 754) and the proximal portion of the outer balloon (555; 755), the spacer configured to maintain the interstitial space (557; 757) between the inner and outer balloons in response to a vacuum pressure within the interstitial space (557; 757), wherein the spacer is positioned about the adaptor. an inner balloon (554; 754) including an internal cavity configured to receive a cryogenic fluid and facilitate a state transfer of the cryogenic fluid into cryogenic gas; an outer balloon (555;755) that encapsulates the inner balloon (554; 754); an interstitial space (557; 757) between the inner balloon (554; 754) and the outer balloon (555; 755); and an exhaust lumen (559; 759) in fluid communication with the internal cavity of the inner balloon (554; 754), the exhaust lumen (559; 759) configured to exhaust cryogenic gas out of the internal cavity; characterized in that the dual-layer ablation balloon further comprises an adaptor (530; 730) that mechanically couples the inner balloon (554; 754) and the outer balloon (555; 755) to a catheter shaft and configured to radially and longitudinally offset proximal portions of the inner balloon (554; 754) and the outer balloon (555; 755); and a spacer coupled between the proximal portion of the inner balloon (554; 754) and the proximal portion of the outer balloon (555; 755), the spacer configured to maintain the interstitial space (557; 757) between the inner and outer balloons in response to a vacuum pressure within the interstitial space (557; 757), wherein the spacer is positioned about the adaptor.
A device, comprising: a printed circuit board, PCB, (104, 204); and a metal structure (106, 206) configured to be both an antenna and an input control, wherein the metal structure (106, 206) is located at a distance from the PCB (104, 204) and oriented such that the metal structure (106, 206) is substantially parallel to the PCB (104, 204), wherein the metal structure (106, 206) is coupled to the PCB (104, 204) via at least a first coupling such that the metal structure (106, 206) is substantially parallel to the PCB (104, 204), wherein an electric field is configured to extend between the PCB (104, 204) and the metal structure (106, 206), wherein the first coupling is an antenna feed and a connection for the input control, and wherein the device is configured to be worn on a human body, characterized in that the electric field extends in a direction transverse to a tangent of a longitudinal surface of the human body when the device is being worn on the human body. a printed circuit board, PCB, (104, 204); and a metal structure (106, 206) configured to be both an antenna and an input control, wherein the metal structure (106, 206) is located at a distance from the PCB (104, 204) and oriented such that the metal structure (106, 206) is substantially parallel to the PCB (104, 204), wherein the metal structure (106, 206) is coupled to the PCB (104, 204) via at least a first coupling such that the metal structure (106, 206) is substantially parallel to the PCB (104, 204), wherein an electric field is configured to extend between the PCB (104, 204) and the metal structure (106, 206), wherein the first coupling is an antenna feed and a connection for the input control, and wherein the device is configured to be worn on a human body, characterized in that the electric field extends in a direction transverse to a tangent of a longitudinal surface of the human body when the device is being worn on the human body.
Process for producing polyisocyanates comprising reacting an isocyanate component in the presence of a mono- or multinuclear complex of titanium, zirconium and/or hafnium as catalyst to give polyisocyanates having a content of iminooxadiazinedione groups of ≥ 20 mol% based on the total amount of isocyanurate and iminooxadiazinedione groups.
Method of compensating for errors in the torque realization of a heat engine belonging to a traction chain of a motor vehicle further comprising: - a gearbox, - the heat engine being coupled to the gearbox via a clutch, and - an electric traction motor disposed downstream of the clutch, - said method comprising, while the clutch is in a closed state: - a comparison step between a target torque corresponding to a desire for acceleration on the part of a driver and an actual torque equal to the sum of a torque (Cme) applied by the electric traction motor and a torque (Cemb) transmitted by the clutch corresponding to the torque (Cmth_r) produced by the heat engine, and - a step of applying an overtorque by the electric traction motor in the case where the actual torque is different from the target torque due to a difference between the torque (Cmth_r) produced by the motor and a setpoint torque (Cmth_cns) of the heat engine, to reach the target torque, characterized in that said method comprises a step of adding a virtual compensatory term (ΔCmth) in the torque (Cemb) transmitted by the clutch. - a gearbox, - the heat engine being coupled to the gearbox via a clutch, and - an electric traction motor disposed downstream of the clutch, - said method comprising, while the clutch is in a closed state: - a comparison step between a target torque corresponding to a desire for acceleration on the part of a driver and an actual torque equal to the sum of a torque (Cme) applied by the electric traction motor and a torque (Cemb) transmitted by the clutch corresponding to the torque (Cmth_r) produced by the heat engine, and - a step of applying an overtorque by the electric traction motor in the case where the actual torque is different from the target torque due to a difference between the torque (Cmth_r) produced by the motor and a setpoint torque (Cmth_cns) of the heat engine, to reach the target torque,
An osteotomy implant comprising: a porous portion including a first part with a first inner surface and a second part with a second inner surface, and a clearance between the first inner surface and the second inner surface; a solid portion abutting the porous portion; and a hinge portion of the solid portion coupled to the first part and the second part; wherein the hinge portion is configured to enable the implant to be changed from a first configuration to a second configuration; characterised in that the implant further comprises an adjustment member, the adjustment member including a fastener extending from the first part to the second part across the clearance defined between the first part and the second part, wherein rotation of the fastener in a first direction draws the first part and the second part together, and rotation of the fastener in a second direction pushes the first part and the second part apart. a porous portion including a first part with a first inner surface and a second part with a second inner surface, and a clearance between the first inner surface and the second inner surface; a solid portion abutting the porous portion; and a hinge portion of the solid portion coupled to the first part and the second part; wherein the hinge portion is configured to enable the implant to be changed from a first configuration to a second configuration; characterised in that the implant further comprises an adjustment member, the adjustment member including a fastener extending from the first part to the second part across the clearance defined between the first part and the second part, wherein rotation of the fastener in a first direction draws the first part and the second part together, and rotation of the fastener in a second direction pushes the first part and the second part apart.
Closure device for sealing off building openings or spaces, in particular an object protection door, comprising a planar structural element, in particular a door leaf, comprising a fillable sealing element connected to the planar structural element, the fillable sealing element having at least three cohesive sealing portions (3a, 3b, 3c), a first sealing portion being orientated along a base edge substantially parallel to a plane of the planar structural element, in such a way that, in a closed position of the closure device, the first sealing portion can be brought into tight contact with a floor, a second sealing portion and a third sealing portion each being orientated along a side edge and substantially parallel to a plane of the planar structural element, in such a way that, in the closed position, the second sealing portion and third sealing portion can be brought into tight contact with a frame element, in particular a doorframe, each in the same direction substantially transverse to the plane (X-Y) of the planar structural element, characterised in that the first sealing portion is arranged offset parallel to a plane (X-Y) extending through the second and the third sealing portion (3b, 3c). comprising a fillable sealing element connected to the planar structural element, the fillable sealing element having at least three cohesive sealing portions (3a, 3b, 3c), a first sealing portion being orientated along a base edge substantially parallel to a plane of the planar structural element, in such a way that, in a closed position of the closure device, the first sealing portion can be brought into tight contact with a floor, a second sealing portion and a third sealing portion each being orientated along a side edge and substantially parallel to a plane of the planar structural element, in such a way that, in the closed position, the second sealing portion and third sealing portion can be brought into tight contact with a frame element, in particular a doorframe, each in the same direction substantially transverse to the plane (X-Y) of the planar structural element, characterised in that the first sealing portion is arranged offset parallel to a plane (X-Y) extending through the second and the third sealing portion (3b, 3c).
Carding wire which runs in a wire longitudinal direction, for a carding roller of a carding machine, with a foot portion which has a base surface for resting on the carding roller, with a flat blade portion which protrudes away from the foot portion in a height direction (h) running perpendicular to the base surface, wherein the blade portion, on the side facing away from the foot portion, has outer edges which run in a zigzag to form teeth on the blade portion, and the blade portion has a first blade portion side face and a second blade portion side face which each run from the foot portion up to the associated outer edge, wherein on at least one of the blade portion side faces (15a, 15b), at least one protrusion is formed which protrudes in a transverse direction (q) running perpendicular to the height direction (h) and to the wire longitudinal direction (l), and which runs in the wire longitudinal direction, and which has an asymmetric cross-sectional profile, and wherein the cross-sectional profile of the at least one protrusion has a rounded spine from which a first flank and a second flank run in different directions, wherein the second flank is arranged closer to the foot portion than the first flank, and the length (L 1) of the first flank is greater than the length (L 2) of the second flank.
A method of harvesting plants comprising: a. providing an article for germinating seeds and growing plants, the article comprising (i) a soilless growth medium that supports seed germination and penetration of roots from developing plants therethrough, (ii) a light barrier layer with a plurality of openings, a shape of the openings accommodates one or more seeds in each opening, un-opened portions of the light barrier layer have a light transmittance that is less than the amount of the light transmittance through any opening in the light barrier layer, the light barrier layer is separable from, positioned atop, and structurally distinct from the soilless growth medium, and (iii) an upper layer that is separable from and positioned atop the light barrier layer, the upper layer has a plurality of openings; b. moving the openings of the light barrier layer, the upper layer, or a combination of these relative to the soilless growth medium; and c. cutting the plant stems that grow through the plurality of openings in the light barrier layer. a. providing an article for germinating seeds and growing plants, the article comprising (i) a soilless growth medium that supports seed germination and penetration of roots from developing plants therethrough, (ii) a light barrier layer with a plurality of openings, a shape of the openings accommodates one or more seeds in each opening, un-opened portions of the light barrier layer have a light transmittance that is less than the amount of the light transmittance through any opening in the light barrier layer, the light barrier layer is separable from, positioned atop, and structurally distinct from the soilless growth medium, and (iii) an upper layer that is separable from and positioned atop the light barrier layer, the upper layer has a plurality of openings; b. moving the openings of the light barrier layer, the upper layer, or a combination of these relative to the soilless growth medium; and c. cutting the plant stems that grow through the plurality of openings in the light barrier layer.
Method for determining the interstitial oxygen concentration (C o) of a sample made from a group-IV p-type semiconductor material, comprising acceptor-type dopant impurities and having an initial charge carrier concentration (p 0) and an initial resistivity (ρ o), comprising the step of: a) submitting the sample to a heat treatment to form thermal donors forming donor-type dopant impurities, b) determining the duration (t) of the heat treatment required to obtain a dopant impurity-compensated semiconductor material; c) determining the thermal donor concentration (N TDD) of the sample of compensated semiconductor material from the charge carrier concentration (p, p 0); and d) determining the interstitial oxygen concentration (C o) from the thermal donor concentration (N TDD) and the duration (t) of the heat treatment. a) submitting the sample to a heat treatment to form thermal donors forming donor-type dopant impurities, b) determining the duration (t) of the heat treatment required to obtain a dopant impurity-compensated semiconductor material; c) determining the thermal donor concentration (N TDD) of the sample of compensated semiconductor material from the charge carrier concentration (p, p 0); and d) determining the interstitial oxygen concentration (C o) from the thermal donor concentration (N TDD) and the duration (t) of the heat treatment.
A method comprising the steps of: preparing a lead halide precursor ink, wherein preparing a lead halide precursor ink comprises the steps of: introducing a lead halide into a vessel, wherein the lead halide comprises a mixture of lead chloride and lead iodide; introducing a first solvent to the vessel; and contacting the lead halide with the first solvent to dissolve the lead halide to form the lead halide precursor ink; depositing the lead halide precursor ink onto a substrate; drying the lead halide precursor ink to form a thin film; annealing the thin film; and rinsing the thin film with a second solvent and a salt, wherein the salt is selected from the group consisting of methylammonium iodide, formamidinium iodide, guanidinium iodide, 1,2,2-triaminovinylammonium iodide, and 5-aminovaleric acid hydroiodide. preparing a lead halide precursor ink, wherein preparing a lead halide precursor ink comprises the steps of: introducing a lead halide into a vessel, wherein the lead halide comprises a mixture of lead chloride and lead iodide; introducing a first solvent to the vessel; and contacting the lead halide with the first solvent to dissolve the lead halide to form the lead halide precursor ink; introducing a lead halide into a vessel, wherein the lead halide comprises a mixture of lead chloride and lead iodide; introducing a first solvent to the vessel; and contacting the lead halide with the first solvent to dissolve the lead halide to form the lead halide precursor ink; depositing the lead halide precursor ink onto a substrate; drying the lead halide precursor ink to form a thin film; annealing the thin film; and rinsing the thin film with a second solvent and a salt, wherein the salt is selected from the group consisting of methylammonium iodide, formamidinium iodide, guanidinium iodide, 1,2,2-triaminovinylammonium iodide, and 5-aminovaleric acid hydroiodide.
A cooking apparatus, comprising: an upper plate configured to support a cooking vessel; a heating module that is disposed in a lower space defined vertically below the upper plate and that is configured to move in the lower space relative to the upper plate, the heating module comprising a coil; and a rail (310, 320) that is disposed vertically below the heating module, that is configured to guide movement of the heating module, characterised in that the rail is configured to receive electric current and transmit the electric current to the heating module. an upper plate configured to support a cooking vessel; a heating module that is disposed in a lower space defined vertically below the upper plate and that is configured to move in the lower space relative to the upper plate, the heating module comprising a coil; and a rail (310, 320) that is disposed vertically below the heating module, that is configured to guide movement of the heating module, characterised in that the rail is configured to receive electric current and transmit the electric current to the heating module.
A method of wireless communication, comprising: receiving, by a user equipment, UE, a configuration indication for a common uplink portion of a subframe, wherein the configuration indication includes at least a configuration index that indicates a configuration for at least two parameters for configuring the common uplink portion, the parameters including one or more of a waveform parameter, a timing parameter, a sub-carrier spacing parameter, a length parameter and a frequency parameter; configuring, by the UE, the common uplink portion based at least in part on the configuration indication; and transmitting, by the UE, a communication in the common uplink portion configured according to the configuration indication. receiving, by a user equipment, UE, a configuration indication for a common uplink portion of a subframe, wherein the configuration indication includes at least a configuration index that indicates a configuration for at least two parameters for configuring the common uplink portion, the parameters including one or more of a waveform parameter, a timing parameter, a sub-carrier spacing parameter, a length parameter and a frequency parameter; configuring, by the UE, the common uplink portion based at least in part on the configuration indication; and transmitting, by the UE, a communication in the common uplink portion configured according to the configuration indication.
A microsphere composition for chemiluminescent analysis, which comprises at least two kinds of receptor microspheres of different particle diameters, and the receptor microspheres are capable of reacting with active oxygen to produce a detectable chemiluminescent signal.
A lubricating system for adding a lubricating fluid to an articulating joint of a patient, the lubricating system comprising: a. an added lubricating fluid imitating the synovial fluid of a joint, b. a unit comprising: a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle, c. at least one of: - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and d. a conduit in fluid connection with the unit and with at least one of the injection port and the reservoir, for supplying the unit with the lubricating fluid. a. an added lubricating fluid imitating the synovial fluid of a joint, b. a unit comprising: a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle, a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle, c. at least one of: - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and d. a conduit in fluid connection with the unit and with at least one of the injection port and the reservoir, for supplying the unit with the lubricating fluid.