mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a rotor for a reluctance motor, wherein - a number of rotor laminations , comprising magnetic fins arranged within an outer ring, which are separated from one another by non-magnetic arched hollows , are manufactured, - the rotor laminations are stacked one behind the other along an axis of rotation (D), - the outer rings of the individual rotor laminations are removed by turning and both ends of the arched hollows herewith open into the outer periphery (U) of the rotor laminations , - the rotor laminations layered one above the other are pressed together and a liquid plastic is injected under pressure, - the hollows across the entire length of the rotor are filled with the liquid plastic so that all rotor laminations are connected to one another, wherein the plastic is solidified, - a form-fit connection with the plastic is produced via connecting elements which are embodied on the magnetic fins , - the connecting elements are embodied as bore holes in the fins , which are filled with the plastic . - a number of rotor laminations , comprising magnetic fins arranged within an outer ring, which are separated from one another by non-magnetic arched hollows , are manufactured, - the rotor laminations are stacked one behind the other along an axis of rotation (D), - the outer rings of the individual rotor laminations are removed by turning and both ends of the arched hollows herewith open into the outer periphery (U) of the rotor laminations , - the rotor laminations layered one above the other are pressed together and a liquid plastic is injected under pressure, - the hollows across the entire length of the rotor are filled with the liquid plastic so that all rotor laminations are connected to one another, wherein the plastic is solidified, - a form-fit connection with the plastic is produced via connecting elements which are embodied on the magnetic fins , - the connecting elements are embodied as bore holes in the fins , which are filled with the plastic .
Connection housing for an electrical feedthrough of a containment system, comprising : a frame formed from a single piece of material, the frame comprising a first frame portion intended to be arranged transversely relative to a longitudinal axis (X) of the electrical feedthrough , the first frame portion having a first circular opening suitable for surrounding an end of the electrical feedthrough for securing the frame to the end of the electrical feedthrough, and a second frame portion extending from the first frame portion , parallel to the longitudinal axis (X) of the electrical feedthrough , to support a gland plate for the passage of cables between the outside of the connection housing and the inside of the connection housing , and a plurality of housing parts (33-38) adapted to be releasably fixed to the frame to form a protective enclosure around connection elements connecting the electrical cables to the electrical feedthrough , wherein the plurality of housing parts (33-38) comprises a bottom frame suitable for being fixed to the second frame portion , so that the connection elements are arranged between the second frame portion and the bottom frame , and a longitudinal cross member having a first end suitable to be secured to the first frame portion and a second end suitable to be secured to the bottom frame . a frame formed from a single piece of material, the frame comprising a first frame portion intended to be arranged transversely relative to a longitudinal axis (X) of the electrical feedthrough , the first frame portion having a first circular opening suitable for surrounding an end of the electrical feedthrough for securing the frame to the end of the electrical feedthrough, and a second frame portion extending from the first frame portion , parallel to the longitudinal axis (X) of the electrical feedthrough , to support a gland plate for the passage of cables between the outside of the connection housing and the inside of the connection housing , and a plurality of housing parts (33-38) adapted to be releasably fixed to the frame to form a protective enclosure around connection elements connecting the electrical cables to the electrical feedthrough , wherein the plurality of housing parts (33-38) comprises a bottom frame suitable for being fixed to the second frame portion , so that the connection elements are arranged between the second frame portion and the bottom frame , and a longitudinal cross member having a first end suitable to be secured to the first frame portion and a second end suitable to be secured to the bottom frame .
Method for the fabrication of electrodes, comprising the steps of: a) epitaxially depositing Indium-Gallium Nitride (InGaN) in form of a thin layer onto a surface of a silicon substrate exposing a crystal face, so that the InGaN layer epitaxially grows along the c-axis and consequently exposes the c-plane; b) detaching the deposit of InGaN from the substrate; c) fragmenting the deposit of InGaN; d) transferring the fragments of InGaN thus obtained onto a conductive support (31; 41; 51) with one-, two- or three-dimensional structure. a) epitaxially depositing Indium-Gallium Nitride (InGaN) in form of a thin layer onto a surface of a silicon substrate exposing a crystal face, so that the InGaN layer epitaxially grows along the c-axis and consequently exposes the c-plane; b) detaching the deposit of InGaN from the substrate; c) fragmenting the deposit of InGaN; d) transferring the fragments of InGaN thus obtained onto a conductive support (31; 41; 51) with one-, two- or three-dimensional structure.
Aircraft seat device for an aircraft seat (1 0e), having at least one mounting unit , having at least one seat bottom which is coupled with the mounting unit , which is configured to form a seating region and to this end has at least one main unit and at least one sub-unit that is implemented so as to be adjustable in relation to the mounting unit between a stowage position and a use position, the at least one adjustable sub-unit being configured for enlarging the seating region in at least one position, and having at least one actuation mechanism by means of which the adjustable sub-unit of the seat bottom is adjustable between its stowage position and its use position, wherein at least one delay module is configured, following a discontinuation of a holding and/or locking force, to hold the adjustable sub-unit in the use position at least for a defined time interval, characterized by a locking unit , which is configured for locking the adjustable sub-unit mechanically in the use position, wherein the locking unit remains in a locking position during the defined time interval after discontinuation of an actuation force and holds the adjustable sub-unit in the use position insofar as the adjustable sub-unit is in the use position at this moment. having at least one mounting unit , having at least one seat bottom which is coupled with the mounting unit , which is configured to form a seating region and to this end has at least one main unit and at least one sub-unit that is implemented so as to be adjustable in relation to the mounting unit between a stowage position and a use position, the at least one adjustable sub-unit being configured for enlarging the seating region in at least one position, and having at least one actuation mechanism by means of which the adjustable sub-unit of the seat bottom is adjustable between its stowage position and its use position, wherein at least one delay module is configured, following a discontinuation of a holding and/or locking force, to hold the adjustable sub-unit in the use position at least for a defined time interval, characterized by a locking unit , which is configured for locking the adjustable sub-unit mechanically in the use position, wherein the locking unit remains in a locking position during the defined time interval after discontinuation of an actuation force and holds the adjustable sub-unit in the use position insofar as the adjustable sub-unit is in the use position at this moment.
An optical coherence tomographic apparatus comprising: image obtaining means for periodically obtaining fundus observational images of an eye (E); tomographic image obtaining means for obtaining a plurality of tomographic images of the eye using interference light (125-4) obtained by interference between return light (L1) from the eye irradiated with measurement light (125-2) scanned on the eye by scanning means comprising an X-scanner (122-1) and a Y-scanner (122-2) and reference light (125-3) corresponding to the measurement light; control means for calculating a movement amount of the fundus by using a previously obtained fundus observational image and a currently obtained fundus observational image by calculating a displacement amount of a region of interest on the fundus observation image in a two-dimensional (X, Y) direction; wherein the control means is configured to drive at least one of the X-scanner (122-1) and the Y-scanner (122-2) to perform a scan on a locus on the fundus (Er) to generate each tomographic image; wherein the control means further controls said scanning means in accordance with the calculated movement amount of the fundus, thereby correcting the scan position, wherein the correction of the scan position is performed, using the calculated movement amount of the fundus, in an interval between scans for obtaining one tomographic image and a next tomographic image by said scanning means. image obtaining means for periodically obtaining fundus observational images of an eye (E); tomographic image obtaining means for obtaining a plurality of tomographic images of the eye using interference light (125-4) obtained by interference between return light (L1) from the eye irradiated with measurement light (125-2) scanned on the eye by scanning means comprising an X-scanner (122-1) and a Y-scanner (122-2) and reference light (125-3) corresponding to the measurement light; control means for calculating a movement amount of the fundus by using a previously obtained fundus observational image and a currently obtained fundus observational image by calculating a displacement amount of a region of interest on the fundus observation image in a two-dimensional (X, Y) direction; wherein the control means is configured to drive at least one of the X-scanner (122-1) and the Y-scanner (122-2) to perform a scan on a locus on the fundus (Er) to generate each tomographic image; wherein the control means further controls said scanning means in accordance with the calculated movement amount of the fundus, thereby correcting the scan position, wherein the correction of the scan position is performed, using the calculated movement amount of the fundus, in an interval between scans for obtaining one tomographic image and a next tomographic image by said scanning means.
A screw closure of plastic for large containers, comprising a cylindrical outer shell having a first female thread of larger diameter and a head plate which partially closes the outer shell at an axial end, wherein the head plate has an opening which in turn accommodates a removal sleeve having an approximately cylindrical inner shell which projects into the interior of the outer shell, wherein the head plate and the removal sleeve are integrally connected together, characterised in that the inner shell has a second female thread of smaller diameter, the outer shell with head plate on the one hand and the removal sleeve with female thread on the other hand are produced separately from each other by injection moulding and are fixedly and tightly connected together by welding or gluing to form the complete screw closure . with head plate on the one hand and the removal sleeve with female thread on the other hand are produced separately from each other by injection moulding and are fixedly and tightly connected together by welding or gluing to form the complete screw closure .
A method for producing renal progenitor cells from intermediate mesoderm cells, comprising the following step of: culturing the intermediate mesoderm cells in a medium containing a TGFβ signaling activator(s) and a BMP inhibitor(s), thereby inducing the renal progenitor cells from the intermediate mesoderm cells.
An aircraft seat comprising at least one actuator capable of generating a movement and at least one movement transmission device including: - a frame (26; 261) provided with a through bore extending in an axial direction (x), - a drive body (28; 281) adapted to be rotated relative to the frame (26; 261) about an axis extending in an axial direction (x); said drive body (28; 281) being arranged in the bore , free in translation in at least the axial direction (x) relative to the frame (26; 261), characterised in that said frame (26; 261) comprises at least one abutment face (34, 38; 75) and at least one braking face (36, 40; 83), said drive body (28; 281) comprising at least one abutment face (62, 65; 84) extending in line with the abutment face (34, 38; 75) of the frame and at least one braking face (55, 63; 86) extending in line with at least part of the braking face (36, 40; 83) of the frame, - at least one elastic element (30, 31; 301) arranged between said at least one abutment face (34, 38; 75) of the frame and said at least one abutment face (62, 65; 84) of the drive body to maintain said at least one braking face (55, 63; 86) of the drive body at a defined distance (Dd) from said at least one braking face (36, 40; 83) of the frame, said at least one elastic element (30, 31; 301) having a determined stiffness and being pre-stressed so that, when an axial load (Ce, Cs) greater than a threshold load is applied to the drive body (28; 281), said elastic element (30, 31; 301) compresses and said at least one braking face (55, 63; 86) of the drive body contacts said at least one braking face (36, 40; 83) of the frame. - a frame (26; 261) provided with a through bore extending in an axial direction (x), - a drive body (28; 281) adapted to be rotated relative to the frame (26; 261) about an axis extending in an axial direction (x); said drive body (28; 281) being arranged in the bore , free in translation in at least the axial direction (x) relative to the frame (26; 261), characterised in that said frame (26; 261) comprises at least one abutment face (34, 38; 75) and at least one braking face (36, 40; 83), said drive body (28; 281) comprising at least one abutment face (62, 65; 84) extending in line with the abutment face (34, 38; 75) of the frame and at least one braking face (55, 63; 86) extending in line with at least part of the braking face (36, 40; 83) of the frame, - at least one elastic element (30, 31; 301) arranged between said at least one abutment face (34, 38; 75) of the frame and said at least one abutment face (62, 65; 84) of the drive body to maintain said at least one braking face (55, 63; 86) of the drive body at a defined distance (Dd) from said at least one braking face (36, 40; 83) of the frame, said at least one elastic element (30, 31; 301) having a determined stiffness and being pre-stressed so that, when an axial load (Ce, Cs) greater than a threshold load is applied to the drive body (28; 281), said elastic element (30, 31; 301) compresses and said at least one braking face (55, 63; 86) of the drive body contacts said at least one braking face (36, 40; 83) of the frame.
A bicycle rim (14; 114) comprising: an annular tire mounting part (20; 120); an annular spoke mounting part (22; 122) including a plurality of spoke openings (22a; 122a) disposed at predetermined locations along a circumferential direction of the annular spoke mounting part (22; 122), the spoke mounting part extending from the annular tire mounting part (20; 120) to define an interior space (44; 144) with a predetermined interior shape; and at least one spoke attachment member (26; 126) that is disposed in the interior space (44; 144); the annular tire mounting part (20; 120) and the annular spoke mounting part (22; 122) being free of any openings communicating with the interior space (44; 144) except for a single air valve opening and the spoke openings (22a; 122a), the at least one spoke attachment member (26; 126) being dimensioned such that the at least one spoke attachment member (26; 126) is/are larger than the single air valve opening and cannot pass through the single air valve opening, characterized in that the spoke attachment member (26; 126) is dimensioned such that the at least one spoke attachment member (26; 126) is/are larger than the spoke openings (22a; 122a) and cannot pass through the spoke openings (22a; 122a). an annular tire mounting part (20; 120); an annular spoke mounting part (22; 122) including a plurality of spoke openings (22a; 122a) disposed at predetermined locations along a circumferential direction of the annular spoke mounting part (22; 122), the spoke mounting part extending from the annular tire mounting part (20; 120) to define an interior space (44; 144) with a predetermined interior shape; and at least one spoke attachment member (26; 126) that is disposed in the interior space (44; 144); the annular tire mounting part (20; 120) and the annular spoke mounting part (22; 122) being free of any openings communicating with the interior space (44; 144) except for a single air valve opening and the spoke openings (22a; 122a), the at least one spoke attachment member (26; 126) being dimensioned such that the at least one spoke attachment member (26; 126) is/are larger than the single air valve opening and cannot pass through the single air valve opening,
Method for determining a neural network (130; 200; 330) for correcting optical imaging errors, having the steps of: determining a plurality of images, wherein the plurality of images are at least partially related to an optical system or the type of an optical system , wherein determining the plurality of images comprises determining training images comprising a plurality of image pairs ; and determining a neural network (130; 200; 330) based on the determined plurality of images such that the determined neural network (130; 200; 330) applied to an image acquired by means of the optical system outputs an image which has been corrected with respect to one or more optical imaging errors, wherein determining the neural network (130; 200; 330) comprises training the neural network (130; 200; 330) on the training images, wherein each image pair of the plurality of image pairs comprises an input image (X i ) for the neural network (130; 200; 330) and a target output image (y 0 ); characterized in that the method further comprises the step of fine-tuning the determined neural network (130; 200; 330), wherein the fine-tuning comprises training specifically for the optical system , wherein the one or more optical imaging errors comprise at least one of the following optical imaging errors: astigmatism, vignetting, coma, chromatic aberration, spherical aberration, and defocusing, wherein the fine-tuned neural network can be assigned to the optical system via a unique identifier of the optical system, preferably an identification number, such that the fine-tuned neural network can be accessed using the identifier of the optical system. determining a plurality of images, wherein the plurality of images are at least partially related to an optical system or the type of an optical system , wherein determining the plurality of images comprises determining training images comprising a plurality of image pairs ; and determining a neural network (130; 200; 330) based on the determined plurality of images such that the determined neural network (130; 200; 330) applied to an image acquired by means of the optical system outputs an image which has been corrected with respect to one or more optical imaging errors, wherein determining the neural network (130; 200; 330) comprises training the neural network (130; 200; 330) on the training images, wherein each image pair of the plurality of image pairs comprises an input image (X i ) for the neural network (130; 200; 330) and a target output image (y 0 ); characterized in that the method further comprises the step of fine-tuning the determined neural network (130; 200; 330), wherein the fine-tuning comprises training specifically for the optical system , wherein the one or more optical imaging errors comprise at least one of the following optical imaging errors: astigmatism, vignetting, coma, chromatic aberration, spherical aberration, and defocusing, wherein the fine-tuned neural network can be assigned to the optical system via a unique identifier of the optical system, preferably an identification number, such that the fine-tuned neural network can be accessed using the identifier of the optical system.
Lighting assembly for a lighting and/or signalling device of an automotive vehicle, comprising a plurality of elementary light sources (1a, ... 1i, ... 1n) arranged on a support , wherein each elementary light source (1a, ... 1i, ... 1n) is a light-emitting diode electrically connected, on the one hand, to a first conductive layer of the support and, on the other hand, to a second conductive layer of the support , the first conductive layer and the second conductive layer being arranged on either side of a thickness of the support , each light-emitting diode (1a, ... 1i, ... 1n) being placed in an accommodating orifice (5a, ... 5i, ... 5n) arranged in the support , the accommodating orifice (5a, ... 5i, ... 5n) extending, respectively, through the first conductive layer and through a thickness of the support as far as the second conductive layer , each light-emitting diode (1a, ... 1i, ... 1n) being partially encapsulated in an optically transparent and electrically conductive covering material , and the optically transparent and electrically conductive covering material being a composite material constituted of a mixture of metal and a plastic material.
A method of analyzing liquid phase samples comprising: guiding a liquid sample to an ionizing device ; heating said liquid sample with said ionizing device at a rate sufficient to thermally evaporate and convert one or more molecular components of said liquid sample to one or more gaseous ions and neutral particles; analyzing said gaseous ions with an ion analyzer device to provide information on the chemical composition of said liquid sample; characterized in that the thermally evaporating said liquid sample comprises: i) applying an electric current to said liquid sample as said liquid sample passes through a gap between a pair of electrodes , or ii) heating said liquid sample via electromagnetic radiation from one or more lasers as said liquid sample passes through a focal point of said one or more lasers . guiding a liquid sample to an ionizing device ; heating said liquid sample with said ionizing device at a rate sufficient to thermally evaporate and convert one or more molecular components of said liquid sample to one or more gaseous ions and neutral particles; analyzing said gaseous ions with an ion analyzer device to provide information on the chemical composition of said liquid sample; characterized in that the thermally evaporating said liquid sample comprises: i) applying an electric current to said liquid sample as said liquid sample passes through a gap between a pair of electrodes , or ii) heating said liquid sample via electromagnetic radiation from one or more lasers as said liquid sample passes through a focal point of said one or more lasers .