mhurhangee/ep-ind-claims huggingface dataset:
A system for diagnosing a medical state associated with a neuro-psychiatric disorder in a subject, comprising: at least one processor executing a code for: receiving a plurality of EEG datasets, each respective EEG dataset from a respective EEG electrode of a plurality of EEG electrodes monitoring a head of the subject; clustering the plurality of EEG datasets into a plurality of clusters; computing a p-adic representation of the plurality of clusters; extracting a quantum potential value from p-adic representation of the plurality of clusters; and diagnosing the medical state associated with the neuro-psychiatric disorder according to the quantum potential relative to a threshold that separates between presence of the medical state and non-presence of the medical state. receiving a plurality of EEG datasets, each respective EEG dataset from a respective EEG electrode of a plurality of EEG electrodes monitoring a head of the subject; clustering the plurality of EEG datasets into a plurality of clusters; computing a p-adic representation of the plurality of clusters; extracting a quantum potential value from p-adic representation of the plurality of clusters; and diagnosing the medical state associated with the neuro-psychiatric disorder according to the quantum potential relative to a threshold that separates between presence of the medical state and non-presence of the medical state.
An electrochemical cell stack compression system comprising: an integral, hollow structure having a defined shape and formed of a plurality of wound fibers, wherein the structure is formed of multiple layers (13A, 13B, 13C); a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack, wherein the electrochemical stack is contained within the structure; at least one end block (12A, 12B) contained within the structure and located at an end region of the structure; and at least one compression mechanism (14A, 14B, 21, 19) contained within the structure, wherein the at least one compression mechanism (14A, 14B, 21, 19) is configured to apply a compressive force to the electrochemical stack, wherein the electrochemical stack, the at least one end block (12A, 12B), and the at least one compression mechanism (14A, 14B, 21, 19) are contained in series within the structure such that the structure forms a continuous border around and adjacent to a periphery of the electrochemical stack, the at least one end block (12A, 12B), and the at least one compression mechanism (14A, 14B, 21, 19). an integral, hollow structure having a defined shape and formed of a plurality of wound fibers, wherein the structure is formed of multiple layers (13A, 13B, 13C); a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack, wherein the electrochemical stack is contained within the structure; at least one end block (12A, 12B) contained within the structure and located at an end region of the structure; and at least one compression mechanism (14A, 14B, 21, 19) contained within the structure, wherein the at least one compression mechanism (14A, 14B, 21, 19) is configured to apply a compressive force to the electrochemical stack, wherein the electrochemical stack, the at least one end block (12A, 12B), and the at least one compression mechanism (14A, 14B, 21, 19) are contained in series within the structure such that the structure forms a continuous border around and adjacent to a periphery of the electrochemical stack, the at least one end block (12A, 12B), and the at least one compression mechanism (14A, 14B, 21, 19).
An electrochemical reactor for exhaust gas purification comprising a plurality of plate-shaped members (63, 83, 84, 87) and a plurality of passages defined by the plurality of plate-shaped members (63, 83, 84, 87), the passages being for the flow of exhaust gas therethrough, wherein each plate-shaped member (63, 83, 84, 87) comprises a cell including an ion conducting solid electrolyte layer, an anode layer arranged on a surface of the solid electrolyte layer, and a cathode layer arranged on a surface of the solid electrolyte layer at an opposite side to the surface at which the anode layer is arranged, and characterised in that: the plate-shaped members (63, 83, 84, 87) are configured so that, for all of the passages, both of an anode layer of at least one plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages and a cathode layer of at least one other plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages face the passages, and wherein all of the plate-shaped members (63, 83, 84, 87) are configured so that the two surfaces of each plate-shaped member (63, 83, 84, 87) face other respectively different plate-shaped members (63, 83, 84, 87). each plate-shaped member (63, 83, 84, 87) comprises a cell including an ion conducting solid electrolyte layer, an anode layer arranged on a surface of the solid electrolyte layer, and a cathode layer arranged on a surface of the solid electrolyte layer at an opposite side to the surface at which the anode layer is arranged, and characterised in that: the plate-shaped members (63, 83, 84, 87) are configured so that, for all of the passages, both of an anode layer of at least one plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages and a cathode layer of at least one other plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages face the passages, and wherein all of the plate-shaped members (63, 83, 84, 87) are configured so that the two surfaces of each plate-shaped member (63, 83, 84, 87) face other respectively different plate-shaped members (63, 83, 84, 87). the plate-shaped members (63, 83, 84, 87) are configured so that, for all of the passages, both of an anode layer of at least one plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages and a cathode layer of at least one other plate-shaped member (63, 83, 84, 87) among the plurality of plate-shaped members (63, 83, 84, 87) defining the passages face the passages, and wherein all of the plate-shaped members (63, 83, 84, 87) are configured so that the two surfaces of each plate-shaped member (63, 83, 84, 87) face other respectively different plate-shaped members (63, 83, 84, 87).
A flange plate for mounting in an opening in a housing wall of a housing, the flange plate having at least one rectangular receiving trough which is open towards a rear side of the flange plate facing the opening and is surrounded on its outer circumference by a boundary wall, wherein a plurality of sealing inserts, each having a conductor aperture, are inserted into the receiving trough in a sealed manner with respect to one another and circumferentially with respect to the boundary wall, wherein the flange plate further has at least one round pre-embossing for a cable gland, wherein the rectangular receiving trough is closed at the front side by a side which is surrounded by a circumferential, rectangular pre-embossing, the side having, in addition to the rectangular pre-embossing, further pre-embossings which subdivide the region of the side surrounded by the rectangular pre-embossing into two triangular and two trapezoidal subregions, characterized in that a further circular pre-embossing is formed in the region enclosed by the rectangular pre-embossing around at least one of two points where the two trapezoidal sub-regions meet with one of the two triangular sub-regions.
An integrated circuit comprising: a delay synthesizer configured to emulate a signal path in a processing core and comprising a first set of logic cells formed by transistor devices with at least a first threshold voltage and a second set of logic cells formed by transistor devices with a second threshold voltage; and a control unit coupled to the delay synthesizer and configured to provide a voltage control based on an output of the delay synthesizer. a delay synthesizer configured to emulate a signal path in a processing core and comprising a first set of logic cells formed by transistor devices with at least a first threshold voltage and a second set of logic cells formed by transistor devices with a second threshold voltage; and a control unit coupled to the delay synthesizer and configured to provide a voltage control based on an output of the delay synthesizer.
Snow lance having at least one nucleator nozzle (20, 50) for producing ice nuclei, and having at least one water nozzle (30; 30'), wherein an ice nuclei jet can be produced with the nucleator nozzle (20, 50) and a droplet jet can be produced with the water nozzle (30; 30'), said jets, after passing through an ice nuclei section and after passing through a droplet section (31; 31'), respectively, meeting in a germination zone, characterized in that the ice nuclei section is at least 10 cm, in particular approximately 20 to 30 cm, and in that the droplet section (31; 31') is at least 20 cm, in particular approximately 40 to 80 cm, and in that the at least one nucleator nozzle (20, 50) is part of an arrangement for producing ice nuclei, having a nozzle channel with at least one compressed air inlet opening and with at least one water inlet opening, and with an outlet opening, wherein the cross section of the nozzle channel tapers in a first section in the direction of the outlet opening to a core diameter, and wherein the cross section of the nozzle channel subsequently expands in a second section in the direction of the outlet opening, wherein the ratio of the cross-sectional area of the outlet opening to the cross-sectional area of the nozzle channel in the region of the core diameter is at least 4:1, preferably approximately 9:1.
A relocation method, comprising: receiving, by a first session management function network element, first identification information from an access and mobility management function network element, wherein the first session management function network element is a target session management function network element in a session management function network element relocation process, and the first identification information comprises an identifier of a source session management function network element in the session management function network element relocation process; obtaining, by the first session management function network element, information about a plurality of anchor user plane function network elements of a first session based on the first identification information; and sending, by the first session management function network element, the information about the plurality of anchor user plane function network elements to a branching point, wherein the information about the plurality of anchor user plane function network elements is used to establish a connection between the branching point and each of the plurality of anchor user plane function network elements, and the branching point is a user plane function network element that is managed by the first session management function network element and that has a function of diverting traffic. receiving, by a first session management function network element, first identification information from an access and mobility management function network element, wherein the first session management function network element is a target session management function network element in a session management function network element relocation process, and the first identification information comprises an identifier of a source session management function network element in the session management function network element relocation process; obtaining, by the first session management function network element, information about a plurality of anchor user plane function network elements of a first session based on the first identification information; and sending, by the first session management function network element, the information about the plurality of anchor user plane function network elements to a branching point, wherein the information about the plurality of anchor user plane function network elements is used to establish a connection between the branching point and each of the plurality of anchor user plane function network elements, and the branching point is a user plane function network element that is managed by the first session management function network element and that has a function of diverting traffic.
A composition in the form of an emulsion for straightening hair comprising: (a) from 1% to 15% by weight of at least one reducing agent selected from thiol reducing agents, non-thiol reducing agents, and mixtures thereof, based on the total weight of the composition; (b) at least one neutralizing agent selected from organic amines, alkali metal hydroxides, alkali earth metal hydroxides, alkali metal carbonates, alkali metal phosphates, and mixtures thereof; (c) at least two fatty substances comprising i. a first fatty substance selected from alkanes, esters of fatty acid, esters of fatty alcohol, hydrocarbons, silicones, non-silicone waxes, mineral oils, vegetable oils, non-silicone synthetic oils, and mixtures thereof; and ii. a second fatty substance selected from fatty alcohols; (d) at least one nonionic surfactant selected from alkyl(ether)phosphates selected from PPG-5-Ceteth-10 phosphate, Oleth-3 phosphate, Oleth-10 phosphate, Ceteth-10 phosphate, a mixture of Ceteth-10 phosphate and Dicetyl phosphate, Dicetyl phosphate, Cetyl phosphate, Stearyl phosphate and mixtures thereof; (e) optionally, at least one quaternary ammonium compound; and (f) water; wherein the pH of the composition ranges from 2 to 4. (a) from 1% to 15% by weight of at least one reducing agent selected from thiol reducing agents, non-thiol reducing agents, and mixtures thereof, based on the total weight of the composition; (b) at least one neutralizing agent selected from organic amines, alkali metal hydroxides, alkali earth metal hydroxides, alkali metal carbonates, alkali metal phosphates, and mixtures thereof; (c) at least two fatty substances comprising i. a first fatty substance selected from alkanes, esters of fatty acid, esters of fatty alcohol, hydrocarbons, silicones, non-silicone waxes, mineral oils, vegetable oils, non-silicone synthetic oils, and mixtures thereof; and ii. a second fatty substance selected from fatty alcohols; i. a first fatty substance selected from alkanes, esters of fatty acid, esters of fatty alcohol, hydrocarbons, silicones, non-silicone waxes, mineral oils, vegetable oils, non-silicone synthetic oils, and mixtures thereof; and ii. a second fatty substance selected from fatty alcohols; (d) at least one nonionic surfactant selected from alkyl(ether)phosphates selected from PPG-5-Ceteth-10 phosphate, Oleth-3 phosphate, Oleth-10 phosphate, Ceteth-10 phosphate, a mixture of Ceteth-10 phosphate and Dicetyl phosphate, Dicetyl phosphate, Cetyl phosphate, Stearyl phosphate and mixtures thereof; (e) optionally, at least one quaternary ammonium compound; and (f) water;
A method for characterizing a sample, the method comprising: directing a beam of electro-magnetic radiation to a sample using an optical source; detecting a Second Harmonic Generation signal using an optical detector, wherein the detected SHG signal includes a portion attributed to one or more material properties of the sample; measuring the one or more material properties of the sample using a secondary analysis device; and under control of an electronic processing circuit: correlating the detected SHG signal with the measured one or more material properties of the sample; removing the portion attributed to one or more material properties of the sample to obtain a parsed SHG signal data; and estimating a characteristic of the sample from the parsed SHG signal data. directing a beam of electro-magnetic radiation to a sample using an optical source; detecting a Second Harmonic Generation signal using an optical detector, wherein the detected SHG signal includes a portion attributed to one or more material properties of the sample; measuring the one or more material properties of the sample using a secondary analysis device; and under control of an electronic processing circuit: correlating the detected SHG signal with the measured one or more material properties of the sample; removing the portion attributed to one or more material properties of the sample to obtain a parsed SHG signal data; and estimating a characteristic of the sample from the parsed SHG signal data. correlating the detected SHG signal with the measured one or more material properties of the sample; removing the portion attributed to one or more material properties of the sample to obtain a parsed SHG signal data; and estimating a characteristic of the sample from the parsed SHG signal data.
A spindle device comprising: a rolling bearing; a main shaft that is rotatably supported by the rolling bearing, the rolling bearing and the main shaft being provided inside a housing; and a lubricant supply device that intermittently or continuously supplies a predetermined amount of lubricant to the rolling bearing through a supply pipe, characterized in that the lubricant contains lubricating oil and wax, that based on a liquefaction point which is a predetermined temperature within a temperature range of 10°C to 70°C, the lubricant is changeable between a liquid state at a temperature exceeding the liquefaction point and a semi-solid state at a temperature equal to or lower than the liquefaction point, wherein the liquefaction point is measured according to Chapter 12, Misc. Provision 69-2 of the Rules for Regulations of Hazardous Substances in Japan, and that the lubricant is transported in a semi-solid state through the supply pipe from the lubricant supply device, changes into a liquid state immediately before the rolling bearing, and flows into the bearing. a rolling bearing; a main shaft that is rotatably supported by the rolling bearing, the rolling bearing and the main shaft being provided inside a housing; and a lubricant supply device that intermittently or continuously supplies a predetermined amount of lubricant to the rolling bearing through a supply pipe, characterized in that the lubricant contains lubricating oil and wax, that based on a liquefaction point which is a predetermined temperature within a temperature range of 10°C to 70°C, the lubricant is changeable between a liquid state at a temperature exceeding the liquefaction point and a semi-solid state at a temperature equal to or lower than the liquefaction point, wherein the liquefaction point is measured according to Chapter 12, Misc. Provision 69-2 of the Rules for Regulations of Hazardous Substances in Japan, and that the lubricant is transported in a semi-solid state through the supply pipe from the lubricant supply device, changes into a liquid state immediately before the rolling bearing, and flows into the bearing.
A light emitting apparatus comprising: a substrate; a light emitting device package on the substrate; and a lens supported by the substrate over the light emitting device package and including a reflective structure, which is formed on the top surface of the lens, wherein the lens includes a lens body having a first recess concaved downward, which is formed in the top surface of the lens body, and a lens supporter provided on the bottom surface of the lens body to support the lens body such that the lens body is spaced apart from the substrate, characterized in that the lens body includes: - a second recess concaved upward, which is formed in the bottom surface of the lens body, said bottom surface being a planar surface, and - lateral sides having a surface perpendicular to the bottom surface of the lens body. a substrate; a light emitting device package on the substrate; and a lens supported by the substrate over the light emitting device package and including a reflective structure, which is formed on the top surface of the lens, - a second recess concaved upward, which is formed in the bottom surface of the lens body, said bottom surface being a planar surface, and - lateral sides having a surface perpendicular to the bottom surface of the lens body.
Valve for a drive of a door or a window, having a valve body and a valve cone, and having an annular first groove which is arranged in the valve body and has a sealing ring, wherein a further annular groove and a depression arranged substantially at right angles to the grooves (13, 14) are arranged in the valve body, characterized in that a one-piece combination ring for securing the valve against rotation and for sealing is injection-moulded in the grooves (13, 14) and in the depression.
A method of communications at a wireless node, comprising: correlating information with observed assist information broadcast from a remote wireless node, the information comprising a user model for the wireless node, and the assist information comprising a portion of a user model for the remote wireless node; determining whether the remote wireless node should establish a wireless link based, at least in part, on the correlation; and if the wireless link is established between the remote wireless node and the wireless node, determining whether to maintain the wireless link based, at least in part, on further correlation between the information and additional assist information received from the remote node over the wireless link. correlating information with observed assist information broadcast from a remote wireless node, the information comprising a user model for the wireless node, and the assist information comprising a portion of a user model for the remote wireless node; determining whether the remote wireless node should establish a wireless link based, at least in part, on the correlation; and if the wireless link is established between the remote wireless node and the wireless node, determining whether to maintain the wireless link based, at least in part, on further correlation between the information and additional assist information received from the remote node over the wireless link.