mhurhangee/ep-ind-claims huggingface dataset:
Device for correcting geometrical differences of surfaces of parts to be assembled at the interface of the assembly, comprising: - means for acquiring, by measurement, the geometry of assembly surfaces of two parts intended to be assembled with one another with their respective assembly surfaces facing one another, said device being characterized in that it comprises: - simulation means receiving from said acquisition means data representative of the geometry of the assembly surfaces, configured to simulate the assembly of the parts and to determine, from said data, at each point measured of a sampling of the interface, a thickness of the hollow volume resulting from the geometrical differences between said assembly surfaces, - additive manufacturing means receiving from the simulation means data representative of the thicknesses of the hollow volumes resulting from the geometrical differences between said assembly surfaces, and configured to deposit material on the assembly surface of at least one of the parts so as to fill, at least partly, the hollow volume resulting from said geometrical differences between said assembly surfaces. - means for acquiring, by measurement, the geometry of assembly surfaces of two parts intended to be assembled with one another with their respective assembly surfaces facing one another, - simulation means receiving from said acquisition means data representative of the geometry of the assembly surfaces, configured to simulate the assembly of the parts and to determine, from said data, at each point measured of a sampling of the interface, a thickness of the hollow volume resulting from the geometrical differences between said assembly surfaces, - additive manufacturing means receiving from the simulation means data representative of the thicknesses of the hollow volumes resulting from the geometrical differences between said assembly surfaces, and configured to deposit material on the assembly surface of at least one of the parts so as to fill, at least partly, the hollow volume resulting from said geometrical differences between said assembly surfaces.
An ultrasonic transducer, comprising: an ultrasonic transmitting and receiving portion; a housing that houses the ultrasonic transmitting and receiving portion inside of the housing, the housing sealing an ultrasonic propagation liquid inside of the housing; a driving device configured to drive the ultrasonic transmitting and receiving portion; a casing that houses the driving device inside of the casing; a first volume compensation mechanism configured to absorb a volume change of the ultrasonic propagation liquid; a second volume compensation mechanism disposed at the diaphragm between the second internal space and the first internal space, a diaphragm that divides an internal space of the casing into at least a first internal space and a second internal space and prevents movement of a gas between the first internal space and another space in the internal space of the casing; a ventilating portion configured to ventilate the first internal space to outside of the casing; and a component disposed in a space other than the first internal space in the internal space of the casing, the component including a frame ground that electrically connects to an electrical circuit, wherein the first volume compensation mechanism is disposed in the second internal space, the second volume compensation mechanism is configured to absorb a change in a gas volume in a case where the gas volume in the second internal space changes, and the first volume compensation mechanism and the second volume compensation mechanism are formed by a flexible and deformable thin film. an ultrasonic transmitting and receiving portion; a housing that houses the ultrasonic transmitting and receiving portion inside of the housing, the housing sealing an ultrasonic propagation liquid inside of the housing; a driving device configured to drive the ultrasonic transmitting and receiving portion; a casing that houses the driving device inside of the casing; a first volume compensation mechanism configured to absorb a volume change of the ultrasonic propagation liquid; a second volume compensation mechanism disposed at the diaphragm between the second internal space and the first internal space, a diaphragm that divides an internal space of the casing into at least a first internal space and a second internal space and prevents movement of a gas between the first internal space and another space in the internal space of the casing; a ventilating portion configured to ventilate the first internal space to outside of the casing; and a component disposed in a space other than the first internal space in the internal space of the casing, the component including a frame ground that electrically connects to an electrical circuit, wherein the first volume compensation mechanism is disposed in the second internal space, the second volume compensation mechanism is configured to absorb a change in a gas volume in a case where the gas volume in the second internal space changes, and the first volume compensation mechanism and the second volume compensation mechanism are formed by a flexible and deformable thin film.
A user equipment comprising: a user interface configured to receive an input of a food model comprising at least one of a shape, an ingredient, or a color of a food in accordance with a touch input of a user; a transceiver configured to transmit information of the food model to a cooking apparatus capable of shaping and heating the food; and a first processor configured to transmit the information of the food model to the cooking apparatus via the transceiver to allow the cooking apparatus to shape the food according to the food model, wherein the user interface is further configured to display: an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, wherein the first processor is further configured to display a preview of the food, and wherein the preview of food represents an appearance of the food after cooking by the cooking apparatus according to a heating temperature and a heating time input by the user. a user interface configured to receive an input of a food model comprising at least one of a shape, an ingredient, or a color of a food in accordance with a touch input of a user; a transceiver configured to transmit information of the food model to a cooking apparatus capable of shaping and heating the food; and a first processor configured to transmit the information of the food model to the cooking apparatus via the transceiver to allow the cooking apparatus to shape the food according to the food model, wherein the user interface is further configured to display: an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, an automatic cooking button for selecting a predetermined food shape, a draw button for inputting a food shape drawn on the user interface by the user, a cooking method button for inputting a cooking method for the food, and an output button for outputting the food in accordance with the food shape and the cooking method, wherein the first processor is further configured to display a preview of the food, and wherein the preview of food represents an appearance of the food after cooking by the cooking apparatus according to a heating temperature and a heating time input by the user.
A seat pan assembly, comprising: spaced left and right seat spreaders (24, 26); and a cushion assembly positioned between and supported on the spaced left and right seat spreaders (24, 26), the cushion assembly comprising: a lower layer of seat foam; an upper layer of seat foam, and a spring assembly encased at depth with the upper layer of seat foam, the spring assembly comprising a base, sidewalls that extend along opposing ends of the base and upwardly at an angle to the base, and a plurality of springs attached to the sidewalls along a top edge of the sidewalls, wherein the lower layer of seat foam is positioned between the base and the plurality of springs, the upper layer of seat foam is positioned above the plurality of springs, and the springs assembly are free of attachment to the spaced left and right seat spreaders (24, 26). spaced left and right seat spreaders (24, 26); and a cushion assembly positioned between and supported on the spaced left and right seat spreaders (24, 26), the cushion assembly comprising: a lower layer of seat foam; an upper layer of seat foam, and a spring assembly encased at depth with the upper layer of seat foam, the spring assembly comprising a base, sidewalls that extend along opposing ends of the base and upwardly at an angle to the base, and a plurality of springs attached to the sidewalls along a top edge of the sidewalls, wherein the lower layer of seat foam is positioned between the base and the plurality of springs, the upper layer of seat foam is positioned above the plurality of springs, and the springs assembly are free of attachment to the spaced left and right seat spreaders (24, 26). a lower layer of seat foam; an upper layer of seat foam, and a spring assembly encased at depth with the upper layer of seat foam, the spring assembly comprising a base, sidewalls that extend along opposing ends of the base and upwardly at an angle to the base, and a plurality of springs attached to the sidewalls along a top edge of the sidewalls, wherein the lower layer of seat foam is positioned between the base and the plurality of springs, the upper layer of seat foam is positioned above the plurality of springs, and the springs assembly are free of attachment to the spaced left and right seat spreaders (24, 26).
Nacelle for an aircraft propulsion assembly, comprising a front part and a main part, said front part having a front end forming an air intake into the nacelle and a rear end comprising a stiffening frame that is annular about an axis of revolution, said stiffening frame comprising an outer peripheral edge connected to an outer panel of the nacelle and an inner peripheral edge, said front part further comprising a connecting part connecting said inner peripheral edge of the stiffening frame to an internal structure of the nacelle and a joining flange connected on one hand to said inner peripheral edge of the stiffening frame and on the other hand to an engine flange of the main part, such that the joining flange comprises a plurality of deformable damping elements distributed along said inner peripheral edge of the stiffening frame, remote from the internal structure of the nacelle.
Method for producing a lead-frame structure having two faces and exposing a treated silver surface on at least one of said two faces, wherein said lead-frame structure comprises at least two lead-frame entities each one having two faces, said method comprising: - providing a lead-frame body structure which has two main sides, said lead frame body structure comprising at least two lead-frame body entities, exclusively exposing a copper surface on each one of said main sides and being provided with an untreated silver surface on at least one of said main sides; - electrolytically treating said lead-frame body structure with a treatment solution, wherein said lead-frame body structure is a cathode, wherein the treatment solution contains at least one hydroxide compound selected from alkali metal hydroxides, alkaline earth metal hydroxides, ammonium hydroxides and mixtures thereof, characterized in that said at least one of said two faces of at least one of said at least two lead-frame entities exclusively exposes said treated silver surface or that said at least one of said two faces of said at least one of said at least two lead-frame entities partially exposes said treated silver surface and partially exposes said copper surface, wherein, on each one of said two faces of each one of said at least two lead-frame entities which partially exposes said treated silver surface, the area of said copper surface is smaller than the area of said treated silver surface. - providing a lead-frame body structure which has two main sides, said lead frame body structure comprising at least two lead-frame body entities, exclusively exposing a copper surface on each one of said main sides and being provided with an untreated silver surface on at least one of said main sides; - electrolytically treating said lead-frame body structure with a treatment solution, wherein said lead-frame body structure is a cathode, wherein the treatment solution contains at least one hydroxide compound selected from alkali metal hydroxides, alkaline earth metal hydroxides, ammonium hydroxides and mixtures thereof,
Method for manufacturing an in particular plate-shaped pressure casting component, comprising the following steps: - providing at least two metallic basic components (1, 2, 6, 7) that are manufactured by means of a pressure casting method and are in particular formed in a plate-shaped manner, - positioning the basic components (1, 2, 6, 7) next to each other in such a manner that they come into abutment in the area of respectively at least one of their outer edges (1a, 2a), - welding together the respectively neighboring basic components (1, 2, 6, 7) by using the friction stir welding method, so that a component (3, 8) is obtained, - sanding the component (3, 8) at least in the area of the weld seams, - polishing the sanded component (3, 8) at least in the area of the weld seams, and characterized in that a decor layer is applied onto the polished component (3, 8), wherein, on a backside that is located opposite a later decor side, the basic components (1, 2, 6, 7) are welded together in such a manner by using a friction stir welding method that the weld seams extend up to the later decor side, the component (3, 8) is sanded and polished on its later decor side at least in the area of the weld seams, and the decor layer is applied to the sanded and polished side of the component (3, 8). - providing at least two metallic basic components (1, 2, 6, 7) that are manufactured by means of a pressure casting method and are in particular formed in a plate-shaped manner, - positioning the basic components (1, 2, 6, 7) next to each other in such a manner that they come into abutment in the area of respectively at least one of their outer edges (1a, 2a), - welding together the respectively neighboring basic components (1, 2, 6, 7) by using the friction stir welding method, so that a component (3, 8) is obtained, - sanding the component (3, 8) at least in the area of the weld seams, - polishing the sanded component (3, 8) at least in the area of the weld seams, and
A household appliance, comprising: a main body, comprising a chamber with an opening; a drawer-type door configured to close or open the chamber; a support mechanism, connected between the drawer-type door and the main body, so that the drawer-type door is movably connected to the main body; a cable, wherein the cable is led from the main body to the drawer-type door; a guidance mechanism configured to guide the cable, wherein the guidance mechanism is adapted to move with the drawer-type door, the guidance mechanism comprises a rigid component and a bendable member, and the bendable member is adapted to move along a moving path comprising a bent portion; wherein a first end of the bendable member is connected to a cable exit portion and a second end of the bendable member is connected to a first end of the rigid component, a second end of the rigid component is connected to the support mechanism; and a limiting mechanism, wherein the limiting mechanism includes a limiting member connected to the support mechanism and is configured to limit the bendable member to move within the moving path and a preset error range. a main body, comprising a chamber with an opening; a drawer-type door configured to close or open the chamber; a support mechanism, connected between the drawer-type door and the main body, so that the drawer-type door is movably connected to the main body; a cable, wherein the cable is led from the main body to the drawer-type door; a guidance mechanism configured to guide the cable, wherein the guidance mechanism is adapted to move with the drawer-type door, the guidance mechanism comprises a rigid component and a bendable member, and the bendable member is adapted to move along a moving path comprising a bent portion; wherein a first end of the bendable member is connected to a cable exit portion and a second end of the bendable member is connected to a first end of the rigid component, a second end of the rigid component is connected to the support mechanism; and a limiting mechanism, wherein the limiting mechanism includes a limiting member connected to the support mechanism and is configured to limit the bendable member to move within the moving path and a preset error range.
Door unlocking and/or door opening mechanism having an actuating device which comprises - at least one actuating element (3.1), - a housing (3.2) and - at least one detection unit (3.3) having a sensor (3.3.1), a trigger element (3.3.2) and an evaluation unit (3.3.3), wherein the detection unit (3.3) is arranged in the housing (3.2), wherein the actuating element (3.1) is arranged outside the housing (3.2) and in a region which is accessible from outside for an actuation, wherein the trigger element (3.3.2) is arranged spaced apart from the sensor (3.3.1) in a locked state of the door unlocking and/or door opening mechanism, wherein, when the actuating element (3.1) is actuated in the direction of the housing (3.2) and of the sensor (3.3.1) arranged therein, the actuating element (3.1) deforms the trigger element (3.3.2), and wherein the sensor (3.3.1) detects a change in a distance (a) between the trigger element (3.3.2) and the sensor (3.3.1), and wherein the evaluation unit (3.3.3) transmits an opening signal to the door unlocking and/or door opening mechanism when said evaluation unit identifies a reduction in the distance between the trigger element (3.3.2) and the sensor (3.3.1) on the basis of the change in distance detected by the sensor (3.3.1), characterized in that at least one resetting element (3.1.3) for resetting the actuating element (3.1) is arranged between the actuating element (3.1) and the housing (3.2). - at least one actuating element (3.1), - a housing (3.2) and - at least one detection unit (3.3) having a sensor (3.3.1), a trigger element (3.3.2) and an evaluation unit (3.3.3), wherein the detection unit (3.3) is arranged in the housing (3.2),
Method for the treating of products, such as eggs to be hatched, with a conditioned gas stream; the method being carried out in a climate chamber, and the climate chamber comprising: ▪ a substantially closed compartment having two opposing lateral walls (12, 22) provided with one or more passages; ▪ a substantially closed channel (3, 23) which extends around the outside of the compartment and connects one of said lateral walls to the other of said lateral walls in order to form together with the compartment a substantially closed circuit; the gas stream being circulated through the circuit; characterized in that the direction in which the gas stream is circulated through the circuit is reversed repeatedly, in each case once a reversing time interval has elapsed. the method being carried out in a climate chamber, and the climate chamber comprising: ▪ a substantially closed compartment having two opposing lateral walls (12, 22) provided with one or more passages; ▪ a substantially closed channel (3, 23) which extends around the outside of the compartment and connects one of said lateral walls to the other of said lateral walls in order to form together with the compartment a substantially closed circuit; ▪ a substantially closed compartment having two opposing lateral walls (12, 22) provided with one or more passages; ▪ a substantially closed channel (3, 23) which extends around the outside of the compartment and connects one of said lateral walls to the other of said lateral walls in order to form together with the compartment a substantially closed circuit; the gas stream being circulated through the circuit; characterized in that the direction in which the gas stream is circulated through the circuit is reversed repeatedly, in each case once a reversing time interval has elapsed.
A positron emission tomography scanner calibration system, including: a PET scanner (102, 210) which is configured for a radioactive calibration phantom to be placed and scanned for a predetermined time period; a processor that is configured to execute computer-executable instructions stored in a memory, the instructions including: receiving settings for a plurality of selected coincidence timing and/or energy windows; scanning the radioactive calibration phantom with the PET scanner (102, 210) for the predetermined time period and acquiring coincidence data for each of the plurality of coincidence timing and/or energy windows defined by the timing and/or energy window settings during each of a plurality of frames of the predetermined time period; and calculating standard uptake values from a number of photon counts detected in each frame over the predetermined time period for each selected coincidence timing and/or energy window. a PET scanner (102, 210) which is configured for a radioactive calibration phantom to be placed and scanned for a predetermined time period; a processor that is configured to execute computer-executable instructions stored in a memory, the instructions including: receiving settings for a plurality of selected coincidence timing and/or energy windows; scanning the radioactive calibration phantom with the PET scanner (102, 210) for the predetermined time period and acquiring coincidence data for each of the plurality of coincidence timing and/or energy windows defined by the timing and/or energy window settings during each of a plurality of frames of the predetermined time period; and calculating standard uptake values from a number of photon counts detected in each frame over the predetermined time period for each selected coincidence timing and/or energy window. receiving settings for a plurality of selected coincidence timing and/or energy windows; scanning the radioactive calibration phantom with the PET scanner (102, 210) for the predetermined time period and acquiring coincidence data for each of the plurality of coincidence timing and/or energy windows defined by the timing and/or energy window settings during each of a plurality of frames of the predetermined time period; and calculating standard uptake values from a number of photon counts detected in each frame over the predetermined time period for each selected coincidence timing and/or energy window.