mhurhangee/ep-ind-claims huggingface dataset:
System with a cooking plate (10a; 10b), which has a cover plate (14a; 14b) and with at least one removable cooking plate unit (16a; 16b), which is provided to be placed on the cover plate (14a; 14b) in order to perform a cooking process, characterised by a safety apparatus, which only then permits operation of a cooking plate (10a, 10b) if at least one suitable cooking plate unit (16a, 16b) is placed on the cover plate (14a, 14b).
A method for executing an agricultural operating procedure on a field by means of a group of agricultural working machines, wherein the working machines of the group each have working assemblies which can be adjusted with machine parameters for adaptation to the respective agricultural conditions, wherein the working machines of the group communicate with each other via a wireless data network, wherein the working machines of the group are configured as self-optimising working machines which each have a driver assistance system for the automated generation and adjustment of machine parameters which have been optimised with respect to the agricultural conditions, wherein the working machines of the group collectively cooperate in the manner of a virtual working machine such that the results of a self-optimisation are fed back into the group, in particular in the form of the optimised machine parameters from a plurality of the working machines of the group, in order to be used further by other working machines of the group, characterized in that the group has a fleet process supervisor which coordinates and/or delegates the generation of the optimised machine parameters, in that the fleet process supervisor divides the generation of the optimised machine parameters into optimisation tasks, in particular for the virtual working assemblies, and distributes the optimisation tasks to a plurality of the working machines of the group, wherein the optimisation tasks are distributed on the basis of an outfitting, preferably of the driver assistance system, of the working machines of the group, and at the start of the execution of the agricultural operating procedure, the working machines of the group carry out a synchronization routine, in that in the synchronization routine, configurations of the working machines are compared with one another and/or correction factors are determined for a conversion of the respective optimised machine parameters between the working machines, more preferably in that conflicts between the configurations of the working machines of the group are determined, and in that the conflicts are indicated to a user and/or automatically resolved.
Household electrical appliance for domestic use comprising a housing comprising an opening through which a lead enclosing at least one electric wire enters, the opening receiving a protective element secured to the lead that extends around the lead in order to protect it locally against wear related to bending and/or rubbing, said protective element supporting a connector for electrically connecting the wire to a connector of complementary shape disposed in the housing when the protective element is fitted in the opening, at least part of said connector forming a single piece with at least one part of the protective element, said part comprising a sheath fixed to the lead, characterised in that said sheath comprises two parts articulated around a hinge, the two parts being intended to grip the lead.
An internal combustion engine which includes an engine body having at least one cylinder having a first cylinder end and an opposed, second cylinder end; a piston which is sealingly mounted for slidingly movement inside the cylinder and which includes a first piston end and an opposed, second piston end; and a crankshaft assembly which is connected to the piston; the piston having a piston body and including a piston valve which is mounted to a passage which extends through the piston body; the piston body includes a biasing member in the form of a compression spring which operates inside the passage thereby causing the piston valve to be biased towards a closed position; the passage includes at least one pair of strut members which support the piston valve through a valve stem thereof thereby to guide longitudinal movement of the piston valve to and from the closed position at which the passage is sealed by the piston valve; wherein first and second cylinder ends (36, 38) are sealed with the crankshaft assembly positioned outside of the sealed cylinder thereby forming a first chamber inside the sealed cylinder between the piston and the first cylinder end and a second chamber inside the sealed cylinder between the piston and the second cylinder end so that the crankshaft assembly is positioned outside the first and second chambers (40, 44); wherein movement of the piston towards the first cylinder end causes the first chamber to become pressurised and movement of the piston to the second cylinder end causes the second chamber to become pressurised; wherein the piston is connected to the crankshaft assembly through the sealed second cylinder end thereby allowing for linear movement of the piston between the first and second cylinder ends to cause rotational movement in the crankshaft assembly; wherein rotational movement of the crankshaft assembly causes the piston valve to move to and from the closed position thereby allowing pressure formed in the second chamber through movement of the piston to ventilate the first chamber, characterized in that the engine body includes two cylinder casings (22, 24) which are mounted opposite to each other with the crankshaft arrangement operating between the two cylinder casings; and wherein the cylinder casings are secured to each other; wherein the cylinder of each of the two cylinder casings (22, 24) is longitudinally aligned; wherein the piston of each of the two cylinders is connected at the same point to the crankshaft assembly.
A medical system ( 28, 60) for normalization correction of an imaging system, comprising: a first modeling unit configured to generate a first model ( 39, 61) simulating characteristics of a type of scanner of interest; and a second modeling unit configured to generate a second model ( 41, 62) of a planar source detector geometry phantom; a normalization data simulator configured to simulate normalization data using the first model ( 39, 61) and using the second model ( 41, 62); a detector geometry correction unit configured to mathematically calculate a detector geometry correction component for a type of scanner of interest using the simulated normalization data; and a crystal efficiency unit configured to empirically determine a crystal efficiency component for at least one individual scanner; and a normalization unit configured to generate a normalization data set ( 56, 68) corresponding to a normalization correction factor of the at least one individual scanner in accordance with the detector geometry correction component and the crystal efficiency component. a first modeling unit configured to generate a first model ( 39, 61) simulating characteristics of a type of scanner of interest; and a second modeling unit configured to generate a second model ( 41, 62) of a planar source detector geometry phantom; a normalization data simulator configured to simulate normalization data using the first model ( 39, 61) and using the second model ( 41, 62); a detector geometry correction unit configured to mathematically calculate a detector geometry correction component for a type of scanner of interest using the simulated normalization data; and a crystal efficiency unit configured to empirically determine a crystal efficiency component for at least one individual scanner; and a normalization unit configured to generate a normalization data set ( 56, 68) corresponding to a normalization correction factor of the at least one individual scanner in accordance with the detector geometry correction component and the crystal efficiency component.
A hair trimming apparatus for trimming the distal ends of hair drawn therethrough, comprising a body having a head portion and a handle portion extending from said head; a recess positioned into a face surface of said head portion, said recess having an opening therein communicating through said face surface with a cutting cavity within said head portion; a positioning member having an open position with a gap between said face surface and said positioning member whereby hair strands are positionable between said positioning member and said face surface; said positioning member having an as-used position with a central portion thereof depending within said recess; said positioning member in said as-used position, forming a serpentine pathway for said hair strands, said serpentine pathway placing said hair strands in a sandwiched positioning between said face and said positioning member; characterized in that the apparatus further comprises a paddle positioned in said cutting cavity in-between two opposing edges of said opening, said paddle having at least one pliable distal edge; a hair cutting component located adjacent at least one of said two opposing edges of said opening and comprising an upper linearly translating bladed element and a lower fixed bladed element; an electric motor having a motor shaft for driving both the paddle and the upper linearly translating bladed element by means of a geared cam system; wherein distal ends of said hair strands drawn through said serpentine pathway and momentarily projecting into said cutting cavity through said opening, are pushed into said cutting component by said pliable distal edge of said paddle rotating in a direction toward said cutting component, thereby causing a severing said distal ends from said hair strands.
Transport or drive belt having warp threads extending in the direction of a central longitudinal axis and weft threads (5, 5') extending between opposite side edges (3, 4), characterized in that the weft threads (5, 5') and the warp threads cross one another, at least in some regions, with a positive gradient (a) or a negative gradient (β) deviating from a right angle, and in that the weft threads (5, 5') follow a wavy course.
An apparatus, comprising: a downhole tool configured for conveyance on drill pipe within a wellbore extending into a subterranean formation, the downhole tool comprising a sample holder, a first expansion chamber, a second expansion chamber, and a spectrometry device, wherein the first expansion chamber is in selective fluid communication with the sample holder and the spectrometry device, wherein the first expansion chamber is configured to expand a hydrocarbon sample received into the sample holder from a downhole location, wherein the spectrometry device is configured to analyze the expanded hydrocarbon sample, wherein the second expansion chamber is in selective fluid communication with the first expansion chamber and the spectrometry device, wherein the second expansion chamber is configured to further expand a portion of the expanded hydrocarbon sample received from the first expansion chamber, and wherein the spectrometry device is configured to analyze the further expanded portion of the expanded hydrocarbon sample. a downhole tool configured for conveyance on drill pipe within a wellbore extending into a subterranean formation, the downhole tool comprising a sample holder, a first expansion chamber, a second expansion chamber, and a spectrometry device, wherein the first expansion chamber is in selective fluid communication with the sample holder and the spectrometry device, wherein the first expansion chamber is configured to expand a hydrocarbon sample received into the sample holder from a downhole location, wherein the spectrometry device is configured to analyze the expanded hydrocarbon sample, wherein the second expansion chamber is in selective fluid communication with the first expansion chamber and the spectrometry device, wherein the second expansion chamber is configured to further expand a portion of the expanded hydrocarbon sample received from the first expansion chamber, and wherein the spectrometry device is configured to analyze the further expanded portion of the expanded hydrocarbon sample.
Spectacles including a face provided with at least one lens-type optical unit, said face defining a passage for the user's nose, said passage for the nose being defined by first and second so-called internal edges (14a,b) of the face, respectively facing the first and second lateral edges (12a,b) of the face, said spectacles also including: - a module for emitting visual information, including an element for emitting said display-type visual information, - optionally an element for optical transformation of said emitted visual information, in particular of the lens type, - a mirror-type element for geometric reflection of the transformed visual information, capable of reflecting said transformed visual information to a target area of said lens-type optical unit, characterized in that - said emitting module is arranged at the bottom or top portion of a first internal edge of the face, while the geometric reflection element is arranged at the top or bottom portion of said first internal edge, with the understanding that when said emitting module is arranged at the bottom portion of said first internal edge of the face, then the geometric reflection element is arranged at the top portion of said first internal edge, and when said emitting module is arranged at the top portion of a first internal edge of the face, then the geometric reflection element is arranged at the bottom portion of said first internal edge. - a module for emitting visual information, including an element for emitting said display-type visual information, - optionally an element for optical transformation of said emitted visual information, in particular of the lens type, - a mirror-type element for geometric reflection of the transformed visual information, capable of reflecting said transformed visual information to a target area of said lens-type optical unit, - said emitting module is arranged at the bottom or top portion of a first internal edge of the face, while the geometric reflection element is arranged at the top or bottom portion of said first internal edge, with the understanding that when said emitting module is arranged at the bottom portion of said first internal edge of the face, then the geometric reflection element is arranged at the top portion of said first internal edge, and when said emitting module is arranged at the top portion of a first internal edge of the face, then the geometric reflection element is arranged at the bottom portion of said first internal edge.
A method, characterised by: executing a first model configured to model an internal environment of a shipping container, the first model configured to intake internal sensor data received from sensors internal to the shipping container and external data associated with an environment external to the shipping container, the first model configured to output internal environment parameters of the shipping container; executing a second model configured to derive water damage incurred to the shipping container, the second model comprising a machine learning model configured to intake the internal environment parameters of the shipping container and output one or more of a probability of loss due to water damage or a predicted severity of water damage to the shipping container or one or more other metrics that depend on loss probability or severity; and prioritizing the shipping container for processing based on the one or more of the probability of loss due to water damage or the predicted severity of water damage to the shipping container. executing a first model configured to model an internal environment of a shipping container, the first model configured to intake internal sensor data received from sensors internal to the shipping container and external data associated with an environment external to the shipping container, the first model configured to output internal environment parameters of the shipping container; executing a second model configured to derive water damage incurred to the shipping container, the second model comprising a machine learning model configured to intake the internal environment parameters of the shipping container and output one or more of a probability of loss due to water damage or a predicted severity of water damage to the shipping container or one or more other metrics that depend on loss probability or severity; and prioritizing the shipping container for processing based on the one or more of the probability of loss due to water damage or the predicted severity of water damage to the shipping container.
A lighting device, comprising: a first group of solid state light emitters; a luminescent material-containing element comprising at least one luminescent material; a second group of solid state light emitters spaced from the luminescent material-containing element, the lighting device configured such that light emitted by the first group of solid state light emitters that directly exits the lighting device exits the lighting device without being incident upon the luminescent material-containing element, an axis of symmetry of the light emission from each of the solid state light emitters in the second group of solid state light emitters, or an axis that is co-linear with a direction of maximum intensity of light emission from each of the solid state light emitters in the second group of solid state light emitters, and/or an axis that is co-linear with a mean direction of light emission from each of the solid state light emitters in the second group of solid state light emitters, passes through at least one area having a perimeter defined by line segments connecting respective pairs of solid state light emitters contained in the first group of solid state light emitters, the first group of solid state light emitters mounted on a first support element that defines a first support element opening in which the luminescent material-containing element is positioned. a first group of solid state light emitters; a luminescent material-containing element comprising at least one luminescent material; a second group of solid state light emitters spaced from the luminescent material-containing element, the lighting device configured such that light emitted by the first group of solid state light emitters that directly exits the lighting device exits the lighting device without being incident upon the luminescent material-containing element, an axis of symmetry of the light emission from each of the solid state light emitters in the second group of solid state light emitters, or an axis that is co-linear with a direction of maximum intensity of light emission from each of the solid state light emitters in the second group of solid state light emitters, and/or an axis that is co-linear with a mean direction of light emission from each of the solid state light emitters in the second group of solid state light emitters, passes through at least one area having a perimeter defined by line segments connecting respective pairs of solid state light emitters contained in the first group of solid state light emitters, the first group of solid state light emitters mounted on a first support element that defines a first support element opening in which the luminescent material-containing element is positioned.
A compound of Formula and enantiomers or diastereomers thereof; and pharmaceutically acceptable salts thereof; wherein: R a is R 1, R 2, R 3, and R 4 are each independently selected from the group consisting of: H, halo, C 1 -C 3 alkyl and C 1 -C 3 perhaloalkyl; R 5 is C 1 -C 3 perhaloalkyl or C 1 -C 3 alkyl; R b is selected from the group consisting of: Wherein: R 6, R 8, R 9, R 10, R 12, R 13 are independently H or C 1 -C 3 alkyl; R 7 is H, halo or C 1 -C 3 perhaloalkyl; R 11 is H, halo or OH; R 14 is H or halo; and R c is selected from the group consisting of: H, NH 2, C 1 -C 4 alkyl. R a is R 1, R 2, R 3, and R 4 are each independently selected from the group consisting of: H, halo, C 1 -C 3 alkyl and C 1 -C 3 perhaloalkyl; R 5 is C 1 -C 3 perhaloalkyl or C 1 -C 3 alkyl; R 1, R 2, R 3, and R 4 are each independently selected from the group consisting of: H, halo, C 1 -C 3 alkyl and C 1 -C 3 perhaloalkyl; R 5 is C 1 -C 3 perhaloalkyl or C 1 -C 3 alkyl; R b is selected from the group consisting of: Wherein: R 6, R 8, R 9, R 10, R 12, R 13 are independently H or C 1 -C 3 alkyl; R 7 is H, halo or C 1 -C 3 perhaloalkyl; R 11 is H, halo or OH; R 14 is H or halo; and R 6, R 8, R 9, R 10, R 12, R 13 are independently H or C 1 -C 3 alkyl; R 7 is H, halo or C 1 -C 3 perhaloalkyl; R 11 is H, halo or OH; R 14 is H or halo; and R c is selected from the group consisting of: H, NH 2, C 1 -C 4 alkyl.
An olefin production process comprising reacting a ketone and hydrogen at a reaction temperature in the range of 50 to 300°C in the presence of a Cu-containing hydrogenation catalyst and a solid acid substance, which solid acid substance is a β-zeolite.
A waterproof structure for an electronic device that acquires location information, which has been acquired by a receiving antenna provided on a vehicle, from the receiving antenna via a wire, the waterproof structure comprising: a case disposed in a location in the vehicle distant from the receiving antenna, housing a processing unit that processes the location information, and having a wiring hole through which the wire passes; a cylindrical part extending in an axial direction of the wire from the case in such a manner as to surround the wiring hole; a seal member housed in the cylindrical part and sealing between the cylindrical member and the wire; and a cap detachably mounted to the case, having a hole for the passage therethrough of the wire, covering the seal member, and fitted with the cylindrical part; wherein the cap includes a cap body for closing an end face of the cylindrical part, an outer cylindrical portion extending from an edge of the cap body toward the case in such a manner as to surround the cylindrical part, and a locking portion formed on the outer cylindrical portion for locking the cap, the locking portion being formed integrally with a distal end of the outer cylindrical portion and having a hook part for engagement with a tool or fingers when the locking portion is to be deflected toward the wire, and wherein the case has a locking prong for anchoring the locking portion. a case disposed in a location in the vehicle distant from the receiving antenna, housing a processing unit that processes the location information, and having a wiring hole through which the wire passes; a cylindrical part extending in an axial direction of the wire from the case in such a manner as to surround the wiring hole; a seal member housed in the cylindrical part and sealing between the cylindrical member and the wire; and a cap detachably mounted to the case, having a hole for the passage therethrough of the wire, covering the seal member, and fitted with the cylindrical part;
A wireless device, the wireless device being provided with different beam indications for reception, from a network node, of at least a first signal and a second signal, the wireless device being configured to receive, from the network node, the first signal of a first signal type on a beam indicated by one of the beam indications, the first signal type having a higher priority than a second signal type of the second signal, wherein receiving, from the network node, the first signal of the first signal type on the beam indicated by one of the beam indications corresponds to receiving only the first signal of the first signal type having the higher priority if the wireless device is provided with the different beam indications at the same time.