mhurhangee/ep-ind-claims huggingface dataset:
A rotor of an electric machine, extending along an axis of rotation (X-X') and comprising a short-circuit cage having at least one bar and at least one first electrical short-circuit ring, the or each bar having a first end portion, the first end portion being connected electrically to the first short-circuit ring by a first connection means and radially relative to the axis of rotation (X-X'), the rotor comprising: - the or each first connection means between a first respective end portion and the first short-circuit ring includes a plurality of flexible, electrically conductive strips; - the short-circuit cage includes a second electrical short-circuit ring, the or each bar having a second end portion, the second end portion being connected electrically to the second short-circuit ring by a second connection means and radially relative to the axis of rotation (X-X'), the or each second connection means between a respective second end portion and the second short-circuit ring also including a plurality of electrically conductive flexible strips; - the flexible strips of a respective connection means (36, 38) are disposed along at least half of the periphery, in a transverse plane perpendicular to the axis of rotation (X-X'), of the corresponding end portion (30, 32), characterised in that: - the flexible strips of a respective connection means (36, 38) are mechanically and electrically connected together by at least one holding strip. - the or each first connection means between a first respective end portion and the first short-circuit ring includes a plurality of flexible, electrically conductive strips; - the short-circuit cage includes a second electrical short-circuit ring, the or each bar having a second end portion, the second end portion being connected electrically to the second short-circuit ring by a second connection means and radially relative to the axis of rotation (X-X'), the or each second connection means between a respective second end portion and the second short-circuit ring also including a plurality of electrically conductive flexible strips; - the flexible strips of a respective connection means (36, 38) are disposed along at least half of the periphery, in a transverse plane perpendicular to the axis of rotation (X-X'), of the corresponding end portion (30, 32), characterised in that: - the flexible strips of a respective connection means (36, 38) are mechanically and electrically connected together by at least one holding strip. - the flexible strips of a respective connection means (36, 38) are mechanically and electrically connected together by at least one holding strip.
A nonporous highly dielectric film comprising vinylidene fluoride resin and a cellulose resin, and is contained in an amount of 2-98 parts by mass when the total amount of and is assumed to be 100 parts by mass, and highly dielectric inorganic particles are not contained.
Mounting bracket to connect a panel equipped with at least one mounting rail at least on the section joined to the back of said panel to a post of a generally square or rectangular cross-section, said rail being of an overall C-shape and comprising at least, on its face opposite to said back, a longitudinal slot leading to a side outside and to the other side in an internal housing wider than said slot, said post comprising at least one front face positioned facing the back of the panel and supporting the rail, when the panel and post are connected, a rear face and two lateral faces, said mounting bracket comprising a body in an overall U-shape and comprising at least - two wings (18a, 18b) substantially parallel to each other, said mounting bracket being characterised in that it additionally comprises: - a core joining on of the longitudinal edges of the two wings (18a, 18b) and presenting a clip so that each one of the wings (18a, 18b) respectively comprises a portion (20a, 20b) extending beyond the core according to the direction of the respective longitudinal edges; - a bracket positioned on the free end of the respective portion (20a, 20b) of each one of the wings (18a, 18b) and able to be inserted into the longitudinal slot of the rail then to cooperate with the internal housing to join said mounting bracket to said rail and thus connect the panel to the post, the post being positioned inside said body, its front face supporting said rail; - a jut protruding from the internal face of one of said wings (18a, 18b) being able to cooperate with said front face to immobilise said mounting bracket on said rail when said core comes into contact with the rear face of the post; said portions (20a, 20b) being sized to enable the insertion of brackets when the post supports the rail. - two wings (18a, 18b) substantially parallel to each other, said mounting bracket being characterised in that it additionally comprises: - a core joining on of the longitudinal edges of the two wings (18a, 18b) and presenting a clip so that each one of the wings (18a, 18b) respectively comprises a portion (20a, 20b) extending beyond the core according to the direction of the respective longitudinal edges; - a bracket positioned on the free end of the respective portion (20a, 20b) of each one of the wings (18a, 18b) and able to be inserted into the longitudinal slot of the rail then to cooperate with the internal housing to join said mounting bracket to said rail and thus connect the panel to the post, the post being positioned inside said body, its front face supporting said rail; - a jut protruding from the internal face of one of said wings (18a, 18b) being able to cooperate with said front face to immobilise said mounting bracket on said rail when said core comes into contact with the rear face of the post;
An electrical DC switching system (1; 1-1; 1-2) for extinguishing an electric arc, wherein the electrical DC switching system comprises: a contact arrangement having a first contact and a second contact, a current injection circuit (5; 5-1; 5-2) including a resonance circuit configured to be connected across the contact arrangement, and a first switch connected to the resonance circuit and to the first contact, wherein the first switch is configured to be switched between an open state and a closed state, wherein in the closed state the first switch is configured to enable an injection current to flow through the resonance circuit in a first flow direction and into the contact arrangement in a direction opposite to a flow direction of a contact arrangement arc current, and an arc chute assembly comprising a plurality of splitter plates (7a-7c) configured to extinguish an electric arc across the first contact and the second contact, characterised in that each splitter plate (7a-7c) of the plurality of splitter plates (7a-7c) has a layered configuration comprising a magnetic layer and two non-magnetic layers. a contact arrangement having a first contact and a second contact, a current injection circuit (5; 5-1; 5-2) including a resonance circuit configured to be connected across the contact arrangement, and a first switch connected to the resonance circuit and to the first contact, wherein the first switch is configured to be switched between an open state and a closed state, wherein in the closed state the first switch is configured to enable an injection current to flow through the resonance circuit in a first flow direction and into the contact arrangement in a direction opposite to a flow direction of a contact arrangement arc current, and an arc chute assembly comprising a plurality of splitter plates (7a-7c) configured to extinguish an electric arc across the first contact and the second contact, characterised in that each splitter plate (7a-7c) of the plurality of splitter plates (7a-7c) has a layered configuration comprising a magnetic layer and two non-magnetic layers.
A blender, comprising a container body for receiving food a main body provided under the container body and configured to support the container body; and wherein the main body is provided with a touch module for controlling operation of the blender and comprises a heat dissipation frame which fixedly supports a heat dissipation member provided inside the main body, characterized in that the touch module is supported by a support means being provided on an end of the heat dissipation frame. a container body for receiving food a main body provided under the container body and configured to support the container body; and wherein the main body is provided with a touch module for controlling operation of the blender and comprises a heat dissipation frame which fixedly supports a heat dissipation member provided inside the main body, characterized in that the touch module is supported by a support means being provided on an end of the heat dissipation frame.
A medical device comprising: at least one of a predictably degrading coating, film, or a fiber formed from a modified cellulose solution; wherein the solution is formed by: contacting a modified cellulose with a solvent under an inert atmosphere to form a swelled modified cellulose; adjusting the swelled modified cellulose mixture to a first temperature; contacting the swelled modified cellulose with a salt under the inert atmosphere to form a modified cellulose solution; and adjusting the modified cellulose solution to a second temperature; and wherein the at least one of the fiber, the coating, or the film is formed by depositing the modified cellulose solution on a substrate and evaporating the solvent from the solution. at least one of a predictably degrading coating, film, or a fiber formed from a modified cellulose solution; contacting a modified cellulose with a solvent under an inert atmosphere to form a swelled modified cellulose; adjusting the swelled modified cellulose mixture to a first temperature; contacting the swelled modified cellulose with a salt under the inert atmosphere to form a modified cellulose solution; and adjusting the modified cellulose solution to a second temperature;
A method of producing treated water comprising: introducing untreated water from a point of water entry into a reservoir system and an electrochemical device; storing the untreated water introduced into the reservoir system in a first zone of the reservoir system; removing at least a portion of any undesirable species from the untreated water introduced into the electrochemical device while suppressing hydroxyl ion generation to produce treated water by applying an electrical current below a level at which the water dissociates; storing the treated water produced by the electrochemical device in a second zone of the reservoir system; the reservoir system having a partition separating the treated water in the second zone from the untreated water in the first zone; distributing at least a portion of the water in the reservoir system to a point of water use, measuring at least one water property being the conductivity of the water in the first and second zones of the reservoir system by a water conductivity sensor connected to a controller, which controller adjusts the applied electric field to the electrochemical device based on the measured water conductivity. introducing untreated water from a point of water entry into a reservoir system and an electrochemical device; storing the untreated water introduced into the reservoir system in a first zone of the reservoir system; removing at least a portion of any undesirable species from the untreated water introduced into the electrochemical device while suppressing hydroxyl ion generation to produce treated water by applying an electrical current below a level at which the water dissociates; storing the treated water produced by the electrochemical device in a second zone of the reservoir system; the reservoir system having a partition separating the treated water in the second zone from the untreated water in the first zone; distributing at least a portion of the water in the reservoir system to a point of water use, measuring at least one water property being the conductivity of the water in the first and second zones of the reservoir system by a water conductivity sensor connected to a controller, which controller adjusts the applied electric field to the electrochemical device based on the measured water conductivity.
Method for testing the unbalance of at least one wheel of a motor vehicle during the operation of the motor vehicle on a dynamic vehicle test stand, wherein the or each wheel which is to be checked with respect to a possible unbalance is measured with a contactless measuring device which is aligned with a wheel hub of the respective wheel, wherein the respective contactless measuring device is directed towards the respective wheel parallel to the one axle from which the respective wheel is suspended, and therefore aligned in the direction of a transverse axis of the motor vehicle, in the direction of a vertical axis of the motor vehicle approximately at the level of the wheel hub and in the direction of a longitudinal axis of the motor vehicle at the centre of the wheel hub, and wherein the respective contactless measuring device measures the respective wheel in such a way that a front and rear limitation and/or an upper and lower limitation of a rim drilled hole are detected repeatedly per revolution of the respective wheel, and the position of the centre point of the rim drilled hole of the respective wheel is determined from the distance thereof, wherein an unbalance of the respective wheel is determined from the change in the positions of the centre points of the rim drilled hole which are determined per revolution of the respective wheel.
A method for regulating a fuel-gas-operated heating device using an ionization target value-output characteristic curve, wherein the regulation of the heating device takes place along the ionization target value-output characteristic curve and in this case a. a gas volume flow supplied via a gas supply and an air volume flow supplied via a fan are mixed to form a gas-air mixture and are supplied to a burner of the heating device with an air-fuel ratio λ based on a desired burner output, b. the air-fuel ratio A is monitored by means of an ionization measuring method of a burner flame of the burner, c. a plausibility check is performed in which an ionization measurement signal of the ionization measuring method is evaluated, and in the case of a deviation from an ionization measurement signal target value, a mixture calibration of the gas-air mixture takes place, and wherein d. the mixture calibration is carried out by an ionization current regulation, in which the gas-air mixture is adapted to a value at which a maximum ionization measurement signal is achieved, and an ionization signal target value for the target air-fuel ratio λ target at a calibration point is calculated from the maximum ionization measurement signal, wherein in the ionization current regulation, the mixture calibration of the air-fuel ratio A is adapted by changing the gas volume flow or gas mass flow until the ionization measurement signal corresponds to the calculated ionization signal target value. a. a gas volume flow supplied via a gas supply and an air volume flow supplied via a fan are mixed to form a gas-air mixture and are supplied to a burner of the heating device with an air-fuel ratio λ based on a desired burner output, b. the air-fuel ratio A is monitored by means of an ionization measuring method of a burner flame of the burner, c. a plausibility check is performed in which an ionization measurement signal of the ionization measuring method is evaluated, and in the case of a deviation from an ionization measurement signal target value, a mixture calibration of the gas-air mixture takes place, and wherein d. the mixture calibration is carried out by an ionization current regulation, in which the gas-air mixture is adapted to a value at which a maximum ionization measurement signal is achieved, and an ionization signal target value for the target air-fuel ratio λ target at a calibration point is calculated from the maximum ionization measurement signal, wherein in the ionization current regulation, the mixture calibration of the air-fuel ratio A is adapted by changing the gas volume flow or gas mass flow until the ionization measurement signal corresponds to the calculated ionization signal target value.
Reinforcement assembly for a structure, comprising a. a reinforcing element arrangeable on the structure, and b. at least one connecting element (8; 8a) to connect the reinforcing element with the structure, the connecting element (8, 8a) comprising i. an anchoring portion to anchor the connecting element (8, 8a) in the structure, ii. a retaining portion (16; 16a) to hold the reinforcing element, the retaining portion (16; 16a) comprising a retaining device (17, 18; 25), and iii. a load transfer portion (20; 20a) arranged between the anchoring portion and the retaining portion (16; 16a) for transferring loads from the connecting element (8; 8a) into the reinforcing element, wherein the connecting element (8; 8a) comprising the load transfer portion (20; 20a) is non-positively connected with the reinforcing element in a through hole (10; 10a), characterized in that the reinforcing element is designed in two parts, wherein a first reinforcing element part and a second reinforcing element part are connectable to the structure independently of one another, and the first reinforcing element part and the second reinforcing element part are connectable to one another in a stressed manner by means of a clamping element, thus allowing the reinforcing element to be attached to the structure in a prestressed condition. a. a reinforcing element arrangeable on the structure, and b. at least one connecting element (8; 8a) to connect the reinforcing element with the structure, the connecting element (8, 8a) comprising i. an anchoring portion to anchor the connecting element (8, 8a) in the structure, ii. a retaining portion (16; 16a) to hold the reinforcing element, the retaining portion (16; 16a) comprising a retaining device (17, 18; 25), and iii. a load transfer portion (20; 20a) arranged between the anchoring portion and the retaining portion (16; 16a) for transferring loads from the connecting element (8; 8a) into the reinforcing element, i. an anchoring portion to anchor the connecting element (8, 8a) in the structure, ii. a retaining portion (16; 16a) to hold the reinforcing element, the retaining portion (16; 16a) comprising a retaining device (17, 18; 25), and iii. a load transfer portion (20; 20a) arranged between the anchoring portion and the retaining portion (16; 16a) for transferring loads from the connecting element (8; 8a) into the reinforcing element,
A self-combusting ignition device comprising a hollow, funnel-shaped body made of a combustible material which is devoid of charcoal, said body having a relatively narrow top opening and a relatively wide bottom opening, and multiple ventilation conduits adjacent said relatively wide bottom opening, characterized in that each of said multiple ventilation conduits is a half-cylindrical niche.
A sounding reference signal SRS transmission method, comprising: receiving, by user equipment UE (300, 500), SRS resource configuration information from a base station (400, 600); receiving, by the UE (300, 500), downlink control information DCI from the base station (400, 600); and sending, by the UE, an SRS in a determined slot and symbol, wherein the determined symbol is determined by the UE (300, 500) based on the SRS resource configuration information, wherein the SRS resource configuration information comprises configuration information used to indicate an SRS resource set, the SRS resource set comprises one or more SRS resources, and characterized in that the SRS resource configuration information further comprises information used to indicate that the SRS resource set has at least two of four functions: beam management, antenna polling, codebook-based transmission, and non-codebook-based transmission. receiving, by user equipment UE (300, 500), SRS resource configuration information from a base station (400, 600); receiving, by the UE (300, 500), downlink control information DCI from the base station (400, 600); and sending, by the UE, an SRS in a determined slot and symbol, wherein the determined symbol is determined by the UE (300, 500) based on the SRS resource configuration information, wherein the SRS resource configuration information comprises configuration information used to indicate an SRS resource set, the SRS resource set comprises one or more SRS resources, and characterized in that the SRS resource configuration information further comprises information used to indicate that the SRS resource set has at least two of four functions: beam management, antenna polling, codebook-based transmission, and non-codebook-based transmission.
A method for detecting a monoclonal antibody in a sample, the method comprising: (a) a step of capturing and immobilizing, in pores of a porous body, the monoclonal antibody in the sample; (b) a step of performing selective protease digestion of the monoclonal antibody for 30 min or longer by contacting the porous body having the monoclonal antibody immobilized thereon with nanoparticles having a protease immobilized thereon; and (c) a step of detecting a peptide fragment obtained by the selective protease digestion, using liquid chromatography mass spectrometry (LC-MS), wherein step (b) is carried out under stirring condition for 10 sec to 5 min in a initial reaction stage, and then under static condition. (a) a step of capturing and immobilizing, in pores of a porous body, the monoclonal antibody in the sample; (b) a step of performing selective protease digestion of the monoclonal antibody for 30 min or longer by contacting the porous body having the monoclonal antibody immobilized thereon with nanoparticles having a protease immobilized thereon; and (c) a step of detecting a peptide fragment obtained by the selective protease digestion, using liquid chromatography mass spectrometry (LC-MS),