mhurhangee/ep-ind-claims huggingface dataset:
A leaf for a door, in particular an entrance door, comprising an inner cladding, an outer cladding, at least one insulating layer (41, 42) sandwiched between said two claddings and a rectangular frame which is also sandwiched between these two claddings, at their inner peripheral edges, the frame comprising on its thickness and on each of its sides (10, 11, 12), at least two profiles (13, 14, 15) of which one is secured to the inner cladding and another is secured to the outer cladding, the frame comprising mounting means being arranged between the at least two profiles, characterised in that said mounting means comprise on one of the at least two profiles at least two grooves (38a, 38b, 38c) arranged lengthwise on a rear or front side of said profile, said at least two grooves being mutually parallel and successive in the direction of the thickness of said door leaf, said mounting means comprising on another of the at least two profiles a bar arranged lengthwise respectively on a front or rear side of said profile, the bar being mounted in one of the at least two grooves (38a, 38b, 38c) so as to allow mounting said door leaf in at least two thicknesses.
A titanium suboxide powder comprising Ti 4 O 7, Ti 5 O 9 and Ti 6 O 11, wherein the Ti 4 O 7, Ti 5 O 9 and Ti 6 O 11 provide over 92 w/w% of the powder, and wherein the Ti 4 O 7 is present at above 30 w/w% of the total powder, wherein 30 w/w% ≤ Ti 4 O 7 ≤ 60 w/w% 35 w/w% ≤ Ti 5 O 9 ≤ 60 w/w% and 2 w/w% ≤ Ti 6 O 11 ≤ 20 w/w%. 30 w/w% ≤ Ti 4 O 7 ≤ 60 w/w% 35 w/w% ≤ Ti 5 O 9 ≤ 60 w/w% and 2 w/w% ≤ Ti 6 O 11 ≤ 20 w/w%.
Trough conveyor, which is designed and configured for transporting fish transversely to the longitudinal extent thereof in the transport direction T M, comprising a transport chain which can be rotationally driven and is formed from chain links and has a transport run, which defines the transport plane E 1, and a return run, wherein the continuous transport chain is guided about at least two deflection elements, which can be rotated about an axis of rotation D u, for driving and guiding the transport chain, and the transport chain has arranged thereon troughs each intended to receive one fish, wherein each trough is arranged on the transport chain so as to be pivotable about an axis of rotation D M extending transversely to the transport direction T M and comprises at least one guide body, and in that at least one guide rail for receiving the guide body and for guiding the same is arranged at least in the transition region U from the transport run to the return run, wherein the course of the or of each guide rail in the transition region U around the deflection element at least partially differs from the course of the transport chain around the deflection element, wherein the transport chain is guided in the region of the deflection element, arranged in the transition region U from the transport run to the return run, on a path of movement B T with a constant radius r T relating to the axis of rotation Du while the or each guide rail describes a path of movement B F for the guide body with a variable radius r F relating to the axis of rotation D U, characterized in that the path of movement B F of the guide body intersects the path of movement B T of the transport chain at least twice.
A method for constructing a mikveh, said method is characterized by the following steps: - permanently fixing at least one initial building unit to the ground or to a stationary substance of an installation site; - connecting, in a sealed manner, additional building units to said at least one initial building unit and if necessary also one to the other, for producing a sealed vessel; - inserting into said vessel at least one partition comprising water transition, for partitioning thereof to at least one basin having a volume of at least 575 liters, and to at least one immersion pool comprising a volume sufficient for immersion, most of said building units have a length of at least 50 centimeters and weight per area less than 250 kg per 1 square meter, thereby applying a modular and relatively lightweight technology for a mikveh, rather than the conventional heavy construction technology. - permanently fixing at least one initial building unit to the ground or to a stationary substance of an installation site; - connecting, in a sealed manner, additional building units to said at least one initial building unit and if necessary also one to the other, for producing a sealed vessel; - inserting into said vessel at least one partition comprising water transition, for partitioning thereof to at least one basin having a volume of at least 575 liters, and to at least one immersion pool comprising a volume sufficient for immersion, most of said building units have a length of at least 50 centimeters and weight per area less than 250 kg per 1 square meter,
A sampling circuit that operates in at least a sample state and a hold state comprising: an input terminal (415; 515; 615; 715; 815; 915; 1015; 1115; 1215) receiving a time variable input signal; and a semiconductor switch (410; 510; 610; 710; 810; 910; 1010; 1110; 1210) that operates in at least a non-conductive mode and a conductive mode as directed by an amount of charge applied to a control terminal, the semiconductor switch being coupled between the input terminal and an output terminal, the semiconductor switch body being accessible at a body bias terminal (1109; 1209); a control circuit (425; 525; 625; 725; 825; 925; 1025; 1125; 1225) coupled to the control terminal and operative to select the semiconductor switch operation mode; a body bias capacitor with first and second terminals (1162, 1262) coupled between the body bias terminal and either the input terminal or the output terminal that maintains, in both sample and hold states, a predetermined and substantially constant body bias voltage difference either between the body bias terminal and the input terminal or between the body bias terminal and the output terminal, respectively, the second terminal of the bias capacitor (1162; 1262) being coupled to the body bias terminal (1109; 1209); and a refresh circuit (1160, 1260) adapted to regulate the voltage of the body bias capacitor in a refresh cycle of at least two phases, wherein a first phase imparts a bias voltage to a refresh capacitor (1165, 1265) and a second phase effectuates charge sharing between said refresh capacitor and said bias capacitor. an input terminal (415; 515; 615; 715; 815; 915; 1015; 1115; 1215) receiving a time variable input signal; and a semiconductor switch (410; 510; 610; 710; 810; 910; 1010; 1110; 1210) that operates in at least a non-conductive mode and a conductive mode as directed by an amount of charge applied to a control terminal, the semiconductor switch being coupled between the input terminal and an output terminal, the semiconductor switch body being accessible at a body bias terminal (1109; 1209); a control circuit (425; 525; 625; 725; 825; 925; 1025; 1125; 1225) coupled to the control terminal and operative to select the semiconductor switch operation mode; a body bias capacitor with first and second terminals (1162, 1262) coupled between the body bias terminal and either the input terminal or the output terminal that maintains, in both sample and hold states, a predetermined and substantially constant body bias voltage difference either between the body bias terminal and the input terminal or between the body bias terminal and the output terminal, respectively, the second terminal of the bias capacitor (1162; 1262) being coupled to the body bias terminal (1109; 1209); and a refresh circuit (1160, 1260) adapted to regulate the voltage of the body bias capacitor in a refresh cycle of at least two phases, wherein a first phase imparts a bias voltage to a refresh capacitor (1165, 1265) and a second phase effectuates charge sharing between said refresh capacitor and said bias capacitor.
Method for creating an optimized route plan for a machine for spreading agricultural material, which machine comprises containers which are arranged next to one another and are each provided with a spreading unit for the material, the said method comprising the following steps using a data processing system: inputting data relating to an agricultural area, on which the material is to be spread, into the data processing system, and inputting or calculating the constant or site-specifically variable quantity of material to be spread per unit area or length, characterized by calculating a route plan, which is optimized for the purpose of equalizing the quantities of material to be taken from the individual containers, for the machine for spreading agricultural material on the agricultural area. inputting data relating to an agricultural area, on which the material is to be spread, into the data processing system, and inputting or calculating the constant or site-specifically variable quantity of material to be spread per unit area or length, characterized by calculating a route plan, which is optimized for the purpose of equalizing the quantities of material to be taken from the individual containers, for the machine for spreading agricultural material on the agricultural area.
A method comprising: in a communication system comprising a first network operatively coupled to a second network, wherein the first network comprises a first security edge protection proxy element operatively coupled to a second security edge protection proxy element of the second network, wherein the first network is a visited public land mobile network and the second network is a home public land mobile network; constructing a message at a network function in the first network destined for the second network, wherein the message comprises at least one information element including an indicator, wherein the indicator is set to specify at least one security operation to be applied, by the first security edge protection proxy element, to the at least one information element before sending the message to the second security edge protection proxy element of the second network. in a communication system comprising a first network operatively coupled to a second network, wherein the first network comprises a first security edge protection proxy element operatively coupled to a second security edge protection proxy element of the second network, wherein the first network is a visited public land mobile network and the second network is a home public land mobile network; constructing a message at a network function in the first network destined for the second network, wherein the message comprises at least one information element including an indicator, wherein the indicator is set to specify at least one security operation to be applied, by the first security edge protection proxy element, to the at least one information element before sending the message to the second security edge protection proxy element of the second network.
A method for manufacturing a plurality of permanent magnet generators adapted for a horological application wherein each generator is rotated by a watch mechanism which is driven by a source of mechanical energy and where each generator power supplies an electronic circuit operating in a given power supply voltage range, this method comprising a step of manufacturing coils (6A, 6B), a step of manufacturing rotors, and then a step of assembling a plurality of stators, each formed of a given number of coils manufactured during the step of manufacturing coils, respectively with a plurality of rotors, manufactured during the step of manufacturing rotors, to obtain the plurality of generators; the step of manufacturing rotors being carried out, with given tolerances, on the basis of data defining a reference rotor; characterised in that the step of manufacturing coils comprises manufacturing N pluralities of coils, similar within the same plurality and different from one plurality to another, N being an integer greater than one (N > 1); in that, before said step of assembling the plurality of stators with the plurality of rotors, a step of classifying the rotors of the plurality of rotors into N classes of rotors is carried out, the rotors of each of the N classes of rotors being selected so that they have a magnetic coupling factor with a reference stator, formed with said given number of reference coils placed in a reference configuration relative to each rotor, which is located within a continuous classification value range which is not superimposed on the continuous classification value ranges of other rotor classes; in that the N pluralities of coils are associated respectively with the N classes of rotors, thus forming N 'plurality of coils and associated class of rotors' pairs, so that the rotors of each class of rotors each have a magnetic coupling factor with a corresponding stator, formed of said given number of coils of the plurality of coils associated with the considered class of rotors, which is located in an optimised value range among N optimised value ranges relating respectively to the N pairs, each of the N optimised value ranges being at least partially superimposed with another of these N optimised value ranges; so that a minimum value of the N optimised value ranges is greater than a minimum value of the continuous classification value ranges and that a maximum value of these N optimised value ranges is less than a maximum value of the continuous classification value ranges, and so that the N optimised value ranges lie within a range of values for the magnetic coupling factor corresponding to the given power supply voltage range, and in that said assembly step is carried out by assembling the rotors of each class of rotors with a stator formed by said given number of coils of the associated plurality of coils with which this class of rotors forms one of said N pairs.
Method for producing a recombinant protein of interest characterised by the following steps: (a) providing a first part of an N pro autoprotease and providing a second part of an N pro autoprotease, wherein said second part is fused by a peptidic bond to a protein of interest but said second part alone does not exhibit a proteolytic activity, and wherein complementation of said first part with the second part forms an autoproteolytically active N pro autoprotease, (b) contacting the first part of the N pro autoprotease with the second part of the N pro autoprotease so that an autoproteolytically active N pro autoprotease is formed and the protein of interest fused by the peptidic bond to the second part of the N pro autoprotease is proteolytically cleaved off the second part of the N pro autoprotease at the peptidic bond, and (c) recovering the protein of interest, wherein the first part of the N pro autoprotease comprises amino acid 22 to 30 of N pro autoprotease and that the second part of the N pro autoprotease comprises amino acid 113 to 168 of N pro autoprotease. (a) providing a first part of an N pro autoprotease and providing a second part of an N pro autoprotease, wherein said second part is fused by a peptidic bond to a protein of interest but said second part alone does not exhibit a proteolytic activity, and wherein complementation of said first part with the second part forms an autoproteolytically active N pro autoprotease, (b) contacting the first part of the N pro autoprotease with the second part of the N pro autoprotease so that an autoproteolytically active N pro autoprotease is formed and the protein of interest fused by the peptidic bond to the second part of the N pro autoprotease is proteolytically cleaved off the second part of the N pro autoprotease at the peptidic bond, and (c) recovering the protein of interest,
A multi-standard integrated antenna array, comprising: a reflection plate, three or more high-frequency arrays and one or more low-frequency arrays, wherein the high-frequency arrays and the low-frequency arrays are mounted on the reflection plate, each low-frequency array comprises one or more cross-shaped low-frequency radiation units, each high-frequency array comprises several high-frequency radiation units, each cross-shaped low-frequency radiation unit is embedded in horizontal and vertical central axes of the high-frequency radiation units and a projection of each cross-shaped low-frequency radiation unit on the reflection plate is located outside a projection of each high-frequency radiation unit on the reflection plate, characterized in that further low-frequency radiation unit is mounted at a head end and a tail end of each of the low-frequency arrays respectively, wherein a shape of the low-frequency radiation unit is a 2 by 2 square grid. wherein the high-frequency arrays and the low-frequency arrays are mounted on the reflection plate, each low-frequency array comprises one or more cross-shaped low-frequency radiation units, each high-frequency array comprises several high-frequency radiation units, each cross-shaped low-frequency radiation unit is embedded in horizontal and vertical central axes of the high-frequency radiation units and a projection of each cross-shaped low-frequency radiation unit on the reflection plate is located outside a projection of each high-frequency radiation unit on the reflection plate, characterized in that further low-frequency radiation unit is mounted at a head end and a tail end of each of the low-frequency arrays respectively, wherein a shape of the low-frequency radiation unit is a 2 by 2 square grid.
Housing for a domestic appliance, comprising a body, a door and a hinge which is disposed adjacent to a lateral surface of the body and which connects body and door, wherein the door has a first recess facing the body, the hinge comprises a bracket fixedly connected to the body and engaging in the recess, an axis of the hinge being defined on said bracket, and that on the bracket a recess facing the lateral surface is formed, a sidewall of the first recess engaging in said recess in the open position of the door, characterised in that the bracket is formed from an edgewise-oriented strip of steel plate and formed around the recess, that the door comprises a centre piece and upper and lower end pieces (5, 6) which are injection moulded from plastic and close a cavity of the centre piece, and that the recess is formed on at least one of the end pieces (5, 6).
A capacitive micromachined ultrasonic transducer CMUT array arranged to be protected from an overcurrent condition comprising: a substrate (12, 70); a plurality of CMUT cells formed on the substrate in an array, each cell having a membrane comprising a top electrode (20, 28) and a bottom electrode coupled to the substrate (12, 70), wherein one of the top or bottom electrodes is a common electrode arranged to be coupled to a reference potential while another electrode is a signal electrode arranged to be coupled to an AC signal; and a protection circuit coupled to a current path of one of the electrodes of a CMUT cell adapted to interrupt the current path in the event of an over-current condition representing a failed cell, the protection circuit having a sense circuit coupled to the current path adapted to sense the over-current condition and initiate the interruption of the current path, characterized in that the protection circuit provides a respective cell enable signal for each cell, wherein the interruption of the current path is adapted to isolate only the failed cell from the remaining cells in the array, which remain fully operational. a substrate (12, 70); a plurality of CMUT cells formed on the substrate in an array, each cell having a membrane comprising a top electrode (20, 28) and a bottom electrode coupled to the substrate (12, 70), wherein one of the top or bottom electrodes is a common electrode arranged to be coupled to a reference potential while another electrode is a signal electrode arranged to be coupled to an AC signal; and a protection circuit coupled to a current path of one of the electrodes of a CMUT cell adapted to interrupt the current path in the event of an over-current condition representing a failed cell, the protection circuit having a sense circuit coupled to the current path adapted to sense the over-current condition and initiate the interruption of the current path, characterized in that the protection circuit provides a respective cell enable signal for each cell, wherein the interruption of the current path is adapted to isolate only the failed cell from the remaining cells in the array, which remain fully operational.
A system for depowdering a workpiece formed from a reactive powder by an additive manufacturing process, the system comprising: a powder removal enclosure; an inert gas source; a sealed ultrasonic transducer, wherein the sealed ultrasonic transducer comprises an ultrasonic transducer within a hermetically sealed housing; a wire guide tube coupled to the sealed ultrasonic transducer, wherein the wire guide tube is configured to provide a pathway for one or more electrical wires connecting the ultrasonic transducer to a controller, and the wire guide tube is configured to provide a cooling path to the ultrasonic transducer within the hermetically sealed housing; an oxygen sensor; and the controller coupled to the sealed ultrasonic transducer and the oxygen sensor, the controller configured to perform a plurality of operations comprising: monitoring the oxygen sensor to observe an oxygen level within the powder removal enclosure as an inert gas from the inert gas source displaces a gas environment within the powder removal enclosure; and applying electrical power to the sealed ultrasonic transducer within the powder removal enclosure to ultrasonically remove a residual amount of the reactive powder from the workpiece based on determining that the oxygen level within the powder removal enclosure is below a minimum oxygen level threshold. a powder removal enclosure; an inert gas source; a sealed ultrasonic transducer, wherein the sealed ultrasonic transducer comprises an ultrasonic transducer within a hermetically sealed housing; a wire guide tube coupled to the sealed ultrasonic transducer, wherein the wire guide tube is configured to provide a pathway for one or more electrical wires connecting the ultrasonic transducer to a controller, and the wire guide tube is configured to provide a cooling path to the ultrasonic transducer within the hermetically sealed housing; an oxygen sensor; and the controller coupled to the sealed ultrasonic transducer and the oxygen sensor, the controller configured to perform a plurality of operations comprising: monitoring the oxygen sensor to observe an oxygen level within the powder removal enclosure as an inert gas from the inert gas source displaces a gas environment within the powder removal enclosure; and applying electrical power to the sealed ultrasonic transducer within the powder removal enclosure to ultrasonically remove a residual amount of the reactive powder from the workpiece based on determining that the oxygen level within the powder removal enclosure is below a minimum oxygen level threshold. monitoring the oxygen sensor to observe an oxygen level within the powder removal enclosure as an inert gas from the inert gas source displaces a gas environment within the powder removal enclosure; and applying electrical power to the sealed ultrasonic transducer within the powder removal enclosure to ultrasonically remove a residual amount of the reactive powder from the workpiece based on determining that the oxygen level within the powder removal enclosure is below a minimum oxygen level threshold.