mhurhangee/ep-ind-claims huggingface dataset:
A method for regulating a cooking process using an item of cookware having inductive properties on a cooking area, wherein a coil is arranged as part of an LC resonant circuit in the region of the cooking area and the natural frequency of the LC resonant circuit is measured repeatedly or continuously, said method having the following method steps A) alternately heating the cooking area with at least two different target powers, wherein a first target power is held longer than a second target power, wherein the first target power is selected to be higher than the second target power, wherein during this process the temperature at the bottom of the item of cookware is repeatedly or continuously measured using a temperature sensor and the frequency of the LC resonant circuit is repeatedly or continuously measured; B) determining a parameter function or vector function for determining and/or regulating the temperature of an object from the measured temperature profile over time of the temperature sensor and from the frequency of the LC resonant circuit depending on the time and depending on the least two target powers; and C) managing the cooking process depending on the parameter function or vector function determined in method step B) and depending on the frequency of the LC resonant circuit and/or the change over time of the frequency of the LC resonant circuit. A) alternately heating the cooking area with at least two different target powers, wherein a first target power is held longer than a second target power, wherein the first target power is selected to be higher than the second target power, wherein during this process the temperature at the bottom of the item of cookware is repeatedly or continuously measured using a temperature sensor and the frequency of the LC resonant circuit is repeatedly or continuously measured; B) determining a parameter function or vector function for determining and/or regulating the temperature of an object from the measured temperature profile over time of the temperature sensor and from the frequency of the LC resonant circuit depending on the time and depending on the least two target powers; and C) managing the cooking process depending on the parameter function or vector function determined in method step B) and depending on the frequency of the LC resonant circuit and/or the change over time of the frequency of the LC resonant circuit.
A bedding element including a first large principal face opposite a second large principal face, the bedding element being divided in the lengthwise direction into portions that define: - on the first large principal face, first successive receiving areas (A1, A2, A3, A4, A5, A6, A7) of which a first succession (A1, A2, A3, A4, A5, A6, A7)defines a first resting area of the bedding element and of which a second succession (A7, A6, A5, A4, A3, A2, A1) that is the opposite of the first defines a second resting area of the bedding element; - on the second large principal face, second successive receiving areas (B1, B2, B3, B4, B5, B6, B7) of which a first succession (B1, B2, B3, B4, B5, B6, B7) defines a third resting area of the bedding element and of which a second succession (B7, B6, B5, B4, B3, B2, B1) that is the opposite of the first defines a fourth resting area of the bedding element; characterized in that the portions of the bedding element that define these receiving areas having differentiated mechanical characteristics so that the four resting areas defined in this way have four different receiving profiles, wherein a receiving profile is the series of mechanical characteristics of the successive receiving areas that constitute each resting area, so that the bedding element could be used in four different ways, the element including two external layers (3, 4; 13, 14; 103, 104; 203, 204) separated by an intermediate layer (5; 15; 105; 205), and the mechanical characteristics of each resting area, conferred by the mechanical characteristics of materials used and the geometry of the different layers, could relate to a number of aspects such as the resilience, flexibility, deformation time under load. - on the first large principal face, first successive receiving areas (A1, A2, A3, A4, A5, A6, A7) of which a first succession (A1, A2, A3, A4, A5, A6, A7)defines a first resting area of the bedding element and of which a second succession (A7, A6, A5, A4, A3, A2, A1) that is the opposite of the first defines a second resting area of the bedding element; - on the second large principal face, second successive receiving areas (B1, B2, B3, B4, B5, B6, B7) of which a first succession (B1, B2, B3, B4, B5, B6, B7) defines a third resting area of the bedding element and of which a second succession (B7, B6, B5, B4, B3, B2, B1) that is the opposite of the first defines a fourth resting area of the bedding element;
Method for the bottom-side labeling of containers, in which rotary plates (5, 25) revolving on a transport means, in particular a carousel, are first equipped by a label dispenser or a printing station (5, 25) with bottom labels (3, 23) and the containers are then placed on the rotary plates equipped in this way and are pressed against the bottom labels.
Helicopter ventilation architecture, said helicopter comprising at least two avionics bays (112a, 112b) comprising electronic equipment (116a, 116b) to be ventilated, said architecture comprising, for each avionics bay: - an air inlet (120a, 120b), allowing outside air to enter the avionics bay to ventilate said avionics bay, - an air outlet (124a, 124b), allowing air ventilating the avionics bay to exit the avionics bay, the ventilation architecture further comprising: - a mixing chamber, connected to the air outlets, configured to receive air originating from all the avionics bays, - at least one air duct (138, 138a, 138b) connected to the mixing chamber, and to an air evacuation outlet (130, 130a, 130b) to the outside, - at least two fans (128a, 128b, 228), arranged and distributed in the air duct(s). - an air inlet (120a, 120b), allowing outside air to enter the avionics bay to ventilate said avionics bay, - an air outlet (124a, 124b), allowing air ventilating the avionics bay to exit the avionics bay, - a mixing chamber, connected to the air outlets, configured to receive air originating from all the avionics bays, - at least one air duct (138, 138a, 138b) connected to the mixing chamber, and to an air evacuation outlet (130, 130a, 130b) to the outside, - at least two fans (128a, 128b, 228), arranged and distributed in the air duct(s).
A method (400, 500) for controlling an energy storage system, the energy storage system comprising a plurality of parallel-connected energy storage devices, the method comprising: operating the energy storage system at an operating allowable system current (IESS), and; determining (402, 504), by at least one controller (144, 190), a limiting energy storage device based at least in part on a current rating for the limiting energy storage device; characterized in determining (404; 506, 508, 510, 512), by the at least one controller, a plurality of adjusted allowable system currents (IESS) based at least in part on modifying a plurality of operational parameters of the limiting energy storage device; determining (408, 516, 518), by the at least one controller, a modified operational parameter of the limiting energy storage device such that the allowable system current (IESS) at the modified operational parameter is increased compared to the operating allowable system current (IESS); and controlling (410, 522) the limiting energy storage device based at least in part on the modified operational parameter. operating the energy storage system at an operating allowable system current (IESS), and; determining (402, 504), by at least one controller (144, 190), a limiting energy storage device based at least in part on a current rating for the limiting energy storage device; characterized in determining (404; 506, 508, 510, 512), by the at least one controller, a plurality of adjusted allowable system currents (IESS) based at least in part on modifying a plurality of operational parameters of the limiting energy storage device; determining (408, 516, 518), by the at least one controller, a modified operational parameter of the limiting energy storage device such that the allowable system current (IESS) at the modified operational parameter is increased compared to the operating allowable system current (IESS); and controlling (410, 522) the limiting energy storage device based at least in part on the modified operational parameter.
A vehicle comprising: a fuselage provided with one or more storage modules, at least in one of which there are accommodated unmanned aerial systems, and at least one docking module configured each to detachably interact at least with one of said unmanned aerial systems so as to enable connection thereof to the fuselage for moving said vehicle, and a control module configured to present control commands at least to one of said unmanned aerial systems so as to enable release thereof from the storage module for interacting with one of said docking modules; the fuselage is configured to simultaneously connect to two or more unmanned aerial systems, and the control module is further configured to receive data in real time relating to the range from each of the unmanned aerial systems connected to the fuselage so as to enable replacement, while movement of the vehicle, of at least one of said unmanned aerial systems with at least one other unmanned aerial system in the event that the range of said unmanned aerial system to be replaced is below a predetermined threshold value. a fuselage provided with one or more storage modules, at least in one of which there are accommodated unmanned aerial systems, and at least one docking module configured each to detachably interact at least with one of said unmanned aerial systems so as to enable connection thereof to the fuselage for moving said vehicle, and a control module configured to present control commands at least to one of said unmanned aerial systems so as to enable release thereof from the storage module for interacting with one of said docking modules; the fuselage is configured to simultaneously connect to two or more unmanned aerial systems, and the control module is further configured to receive data in real time relating to the range from each of the unmanned aerial systems connected to the fuselage so as to enable replacement, while movement of the vehicle, of at least one of said unmanned aerial systems with at least one other unmanned aerial system in the event that the range of said unmanned aerial system to be replaced is below a predetermined threshold value.
A wiring structure (20, 200, 300) comprising: a first conductive material layer (30, 270); and a nanocrystalline graphene layer (50, 250) on the first conductive material layer (30, 270); characterised in that the wiring structure (20, 200, 300) further comprises a second conductive material layer on the nanocrystalline graphene layer (50, 250). a first conductive material layer (30, 270); and a nanocrystalline graphene layer (50, 250) on the first conductive material layer (30, 270); characterised in that the wiring structure (20, 200, 300) further comprises a second conductive material layer on the nanocrystalline graphene layer (50, 250).
An electronic electric meter resistant to alternating magnetic field interferences, comprising a current divider, a relay, and a circuit board of the electronic electric meter; the current divider being connected to a terminal of the relay; the current divider having a shape of a sheet, and comprising a sampling resistor sheet made of a high resistivity material; characterized in that a through hole is provided in the sampling resistor sheet; a first connecting end and a second connecting end are provided at both ends of the sampling resistor sheet, wherein the first connecting end is formed by protruding upwards integrally from an upper-side edge of the current divider, and the second connecting end is formed by protruding downwards integrally from a lower-side edge of the current divider; the first connecting end is connected to a first signal line and the second connecting end is connected to a second signal line, and the second signal line connected to the second connecting end, after passing through the through hole, is twisted together with the first signal line connected to the first connecting end; the ends of the first and second signal lines (31, 32) are connected to the circuit board of the electronic electric meter, respectively.
Floor-based robot, wherein the robot comprises the following: - a chassis; - a first drive facility, which is attached to the chassis by means of a first motion link; - a second drive facility, which is attached to the chassis by means of a second motion link; - wherein the drive facilities are attached on different sides in relation to a movement direction; characterised in that - the first motion link is designed as a pushed motion link and the second motion link is designed as a pulled motion link. - a chassis; - a first drive facility, which is attached to the chassis by means of a first motion link; - a second drive facility, which is attached to the chassis by means of a second motion link; - wherein the drive facilities are attached on different sides in relation to a movement direction; characterised in that - the first motion link is designed as a pushed motion link and the second motion link is designed as a pulled motion link.
An implant (500; 900) for the treatment of pelvic floor disorder having a proximal portion and a distal portion and a lumen extending from the proximal portion to the distal portion, the implant (500; 900) comprising: a first portion (504; 904) of the implant (500; 900), the first portion (504; 904) having a tubular structure; and a second portion (506; 906) at the proximal portion of the implant (500; 900), the second portion (506; 906) extending from the first portion, the second portion (506; 906) having a first section and a second section and two slits (518A, 518B) extending laterally along a length of the implant (500; 900), the two slits (518A, 518B) configuring the first section as apart from the second section at the proximal end of the implant (500; 900); and wherein the first portion (504, 904) has a stiffness that is greater than a stiffness of the second portion (506; 906). a first portion (504; 904) of the implant (500; 900), the first portion (504; 904) having a tubular structure; and a second portion (506; 906) at the proximal portion of the implant (500; 900), the second portion (506; 906) extending from the first portion, the second portion (506; 906) having a first section and a second section and two slits (518A, 518B) extending laterally along a length of the implant (500; 900), the two slits (518A, 518B) configuring the first section as apart from the second section at the proximal end of the implant (500; 900); and wherein the first portion (504, 904) has a stiffness that is greater than a stiffness of the second portion (506; 906).
An apparatus comprising: a memory to store a plurality of allocated objects, an allocated object referenced by a pointer; and a processor configured to execute a join instruction to create a group of pointers, by creating a group record for the group referenced by a group pointer and setting a group bit and ownership identifier, ID, of pointers of the group; and execute a transfer group ownership instruction to transfer ownership of the group, including pointers of the group, by verifying validity of the group and setting the ownership ID of pointers of the group when the group is valid. a memory to store a plurality of allocated objects, an allocated object referenced by a pointer; and a processor configured to execute a join instruction to create a group of pointers, by creating a group record for the group referenced by a group pointer and setting a group bit and ownership identifier, ID, of pointers of the group; and execute a transfer group ownership instruction to transfer ownership of the group, including pointers of the group, by verifying validity of the group and setting the ownership ID of pointers of the group when the group is valid. execute a join instruction to create a group of pointers, by creating a group record for the group referenced by a group pointer and setting a group bit and ownership identifier, ID, of pointers of the group; and execute a transfer group ownership instruction to transfer ownership of the group, including pointers of the group, by verifying validity of the group and setting the ownership ID of pointers of the group when the group is valid.
An ultrasound apparatus comprising: an ultrasound transceiver configured to transmit an ultrasound signal to an object and receive an ultrasound echo signal reflected from the object; a controller configured to detect a change amount of a diameter of a blood vessel of the object, based on the ultrasound echo signal, calculate a blood pressure graph showing a blood pressure of the object by using that a change amount of a blood pressure is proportional to the detected change amount of the diameter of the blood vessel of the object, and determine at least one inflection point in the blood pressure graph; a display unit configured to display the calculated blood pressure graph showing a blood pressure of the object and an image representing the at least one inflection point in the blood pressure graph; and a user input unit configured to receive a user input which selects one from the at least one inflection point, wherein the controller is configured to calculate a stiffness of the blood vessel, based on a difference value between a maximum blood pressure in the blood pressure graph and a blood pressure corresponding to the selected inflection point. an ultrasound transceiver configured to transmit an ultrasound signal to an object and receive an ultrasound echo signal reflected from the object; a controller configured to detect a change amount of a diameter of a blood vessel of the object, based on the ultrasound echo signal, calculate a blood pressure graph showing a blood pressure of the object by using that a change amount of a blood pressure is proportional to the detected change amount of the diameter of the blood vessel of the object, and determine at least one inflection point in the blood pressure graph; a display unit configured to display the calculated blood pressure graph showing a blood pressure of the object and an image representing the at least one inflection point in the blood pressure graph; and a user input unit configured to receive a user input which selects one from the at least one inflection point, wherein the controller is configured to calculate a stiffness of the blood vessel, based on a difference value between a maximum blood pressure in the blood pressure graph and a blood pressure corresponding to the selected inflection point.
A system for analyzing a condition of an animal, wherein the system includes at least an identification unit (2.1) which is arranged to be worn by an animal, wherein the identification unit includes a first transmitter unit, a movement sensor, and a control unit which is communicatively connected with the transmitter unit and the movement sensor, wherein the system further includes a receiver unit and a computer which is connected with the receiver unit and wherein the system further includes positioning means for measuring a position of the identification unit, wherein the control unit is arranged for, in use, storing and/or processing electronic information of movements of the animal which have been obtained with the movement sensor, and wherein the control unit is possibly arranged to transmit electronic information about the detected movements of the animal and/or an identification code which is stored in the identification unit (2.1) with the aid of the transmitter unit to the receiver unit, wherein the receiver unit feeds the received electronic information about the detected movements and/or the identification code to the computer, wherein the system is further arranged to feed positions of the identification unit measured with the aid of the positioning means to the computer and/or the control unit, wherein the computer and/or the control unit is arranged to process the electronic information about detected movements and the electronic information about the measured positions in combination for analyzing the condition of the animal, wherein, if the control unit is arranged to process the electronic information about detected movements and the electronic information about the measured positions in combination, the control unit is preferably also arranged to transmit information about the result of the analysis with the transmitter unit to the receiver unit for storage and/or further processing in the computer, characterized in that the computer and/or the control unit is provided with a plurality of filters (34, 40, 46, 52, 58, 72, 88) and/or a plurality of algorithms (34, 40, 46, 52, 58, 72, 88) to process the electronic information about the measured positions and/or the electronic information about the detected movements, wherein the computer and/or the control unit is arranged to select on the basis of the electronic information about the detected movements and/or on the basis of the electronic information about the measured positions the predetermined filter from the plurality of filters and/or the predetermined algorithm from the plurality of algorithms with which the electronic information about the measured positions and/or the electronic information about the detected movements is processed.
A portable container, such as a suitcase, trunk, case, trolley, and the like, comprising an outer shell for delimiting at least one compartment for accommodating personal items, instruments, tools, objects in general, and at least one electronic tag (4a, 4b) configured to store data of various kinds and/or transmit them via a contactless information transmission technology, such as RFID, NFC and similar technologies, the portable container comprising a supporting plate which is anchored permanently to an external surface region of said shell, an at least partially transparent plaque being arranged on a first face of said plate, on the opposite side with respect to said surface region, by interlocking in a parallel and detachable manner, for the definition of a pocket configured to receive identification elements such as tags, cards or the like, characterized in that said at least one electronic tag (4a, 4b) is fixed stably on a second face of said plate, which is opposite with respect to said first face and is applied stably to said surface region of said shell.