mhurhangee/ep-ind-claims huggingface dataset:
Receiving device (10, 10a-10c) for pre-assembled electrical conductors, with - a receiving part, which has a guide gap, into which a plurality of pre-assembled electrical conductors is suspendable one behind the other, wherein the guide gap has a removal section, through which electrical conductors suspended in the guide gap can be moved through for removal from the guide gap; and - a locking mechanism with at least one movable locking body (32a, 32b), which is set up to lock at least a part of the removal section in a locking position and to release in a release position; wherein the locking body (32a, 32b) is a blocking element, by means of which the removal section of the guide gap is blockable, and wherein the locking body (32a, 32b) is movable from the locking position into the release position by an opening force applied to the locking body (32a, 32b) by an electrical conductor to be removed from the guide gap in order to remove the electrical conductor suspended in the guide gap; characterized by at least one return spring (34a, 34b), which is set up to - apply a closing force to the locking body (32a, 32b), and - counteract the opening force applied to the locking body (32a, 32b) by the electrical conductor to be removed, and - cause a movement of the locking body (32a, 32b) from the release position into the locking position. - a receiving part, which has a guide gap, into which a plurality of pre-assembled electrical conductors is suspendable one behind the other, wherein the guide gap has a removal section, through which electrical conductors suspended in the guide gap can be moved through for removal from the guide gap; and - a locking mechanism with at least one movable locking body (32a, 32b), which is set up to lock at least a part of the removal section in a locking position and to release in a release position; wherein the locking body (32a, 32b) is a blocking element, by means of which the removal section of the guide gap is blockable, and wherein the locking body (32a, 32b) is movable from the locking position into the release position by an opening force applied to the locking body (32a, 32b) by an electrical conductor to be removed from the guide gap in order to remove the electrical conductor suspended in the guide gap; characterized by at least one return spring (34a, 34b), which is set up to - apply a closing force to the locking body (32a, 32b), and - counteract the opening force applied to the locking body (32a, 32b) by the electrical conductor to be removed, and - cause a movement of the locking body (32a, 32b) from the release position into the locking position. - apply a closing force to the locking body (32a, 32b), and - counteract the opening force applied to the locking body (32a, 32b) by the electrical conductor to be removed, and - cause a movement of the locking body (32a, 32b) from the release position into the locking position.
Fuel/air mixing installation, in particular for a heating apparatus assisted by a blower, comprising an air inlet, an outer Venturi tube having a first constriction, an inner Venturi tube having a second constriction, and a nozzle for supplying fuel in the region of the second constriction, wherein the inner Venturi tube is disposed within the outer Venturi tube, characterized in that a first entry opening of the outer Venturi tube in terms of a longitudinal direction of the fuel/air mixing installation is largely disposed at a second entry opening of the inner Venturi tube.
An image capturing apparatus comprising: an image sensor including focus detection pixels which output a first pixel signal for focus detection and imaging pixels which output a second pixel signal for image recording; timing generation means configured to output timing information for driving the image sensor; correction means (200, 201) configured to sequentially determine whether a signal which is output from the image sensor and input to the correction means is the first pixel signal or the second pixel signal by determining a position of a pixel, that outputted the signal, in the image sensor on the basis of the timing information output by the timing generation means, and generate a request signal for reading out shading correction data, the request signal including the determination result of the signal; memory control means configured to generate, in response to the request signal, an address of storage means at which shading correction data for a first image sensing pixel is stored in a case where the input signal is determined as the first pixel signal, and generate an address of the storage means at which shading correction data for a second image sensing pixel is stored in a case where the input signal is determined as the second pixel signal, and instruct the storage means to output the shading correction data stored at the address, wherein the correction means perform shading correction using the shading correction data output from the storage means. an image sensor including focus detection pixels which output a first pixel signal for focus detection and imaging pixels which output a second pixel signal for image recording; timing generation means configured to output timing information for driving the image sensor; correction means (200, 201) configured to sequentially determine whether a signal which is output from the image sensor and input to the correction means is the first pixel signal or the second pixel signal by determining a position of a pixel, that outputted the signal, in the image sensor on the basis of the timing information output by the timing generation means, and generate a request signal for reading out shading correction data, the request signal including the determination result of the signal; memory control means configured to generate, in response to the request signal, an address of storage means at which shading correction data for a first image sensing pixel is stored in a case where the input signal is determined as the first pixel signal, and generate an address of the storage means at which shading correction data for a second image sensing pixel is stored in a case where the input signal is determined as the second pixel signal, and instruct the storage means to output the shading correction data stored at the address, wherein the correction means perform shading correction using the shading correction data output from the storage means.
Test device for determining the particle load of highly pressurised hydrogen, comprising a housing, which has an inlet and an outlet for the inflow or outflow of hydrogen, respectively, and a sampling chamber, in which a filter holder for a test filter is provided, through which a sample amount of hydrogen can flow during a test operation and which, after the test operation has been completed, can be removed from the sampling chamber to evaluate the deposition of particles, and having a venting apparatus (64, 70) to reduce the pressure in the sampling chamber, characterised in that the venting apparatus (64, 70) is arranged inside the housing and, after the outflow of hydrogen has stopped, discharges any hydrogen still remaining in the test device, at least partially, in the direction of the inlet, from the test device.
A free-standing tennis training wall comprising: a frame; and a substantially smooth and planar heat-strengthened glass panel attached to the frame, the glass panel forming at least part of a rebound surface of the free-standing tennis training wall and wherein: the glass panel comprises markings configured to represent a tennis net, and the glass panel is substantially transparent such that the wall is substantially transparent. a frame; and a substantially smooth and planar heat-strengthened glass panel attached to the frame, the glass panel forming at least part of a rebound surface of the free-standing tennis training wall and wherein: the glass panel comprises markings configured to represent a tennis net, and the glass panel is substantially transparent such that the wall is substantially transparent.
A method of manufacturing optoelectronic devices comprising the successive steps of: (a) providing a substrate having a first surface; (b) forming, on the first surface, assemblies of light-emitting diodes comprising, conical or tapered wire-shaped semiconductor elements; (c) forming, for each assembly of light-emitting diodes, an electrode layer covering each light-emitting diode of said assembly and a conductive layer covering the electrode layer around the light-emitting diodes of said assembly; (d) covering the entire first surface of a layer encapsulating the light-emitting diodes; (e) decreasing the substrate thickness, the substrate having, after step (e), a second surface opposite to the first surface; (f) forming a conductive element electrically insulated from the substrate and crossing the substrate from the second surface all the way to at least the first surface, the conductive element being in contact with the conductive layer; (g) forming, on the second surface, at least one first conductive pad (52; 60; 82; 102; 132) in contact with the substrate; and (h) cutting the obtained structure to separate each assembly of light-emitting diodes. (a) providing a substrate having a first surface; (b) forming, on the first surface, assemblies of light-emitting diodes comprising, conical or tapered wire-shaped semiconductor elements; (c) forming, for each assembly of light-emitting diodes, an electrode layer covering each light-emitting diode of said assembly and a conductive layer covering the electrode layer around the light-emitting diodes of said assembly; (d) covering the entire first surface of a layer encapsulating the light-emitting diodes; (e) decreasing the substrate thickness, the substrate having, after step (e), a second surface opposite to the first surface; (f) forming a conductive element electrically insulated from the substrate and crossing the substrate from the second surface all the way to at least the first surface, the conductive element being in contact with the conductive layer; (g) forming, on the second surface, at least one first conductive pad (52; 60; 82; 102; 132) in contact with the substrate; and (h) cutting the obtained structure to separate each assembly of light-emitting diodes.
Method for operating a cooling system which forms a large cooling circuit, in which a heat exchanger is integrated, and a small cooling circuit, in which the heat exchanger is excluded, wherein the heat exchanger comprises a plurality of heat-exchanger tubes, which are intended for being flowed through by means of a coolant and for being flowed around by means of a cooling medium, and heat-exchanger boxes (48, 58), which are connected to the heat-exchanger tubes at the ends thereof, wherein, for U-shaped flow guidance of the cooling medium, at least a first one of the heat-exchanger boxes has an inlet of the heat exchanger and an outlet of the heat exchanger, and this first heat-exchanger box is able to be closed to a variable extent between the inlet and the outlet by means of a closure element, and wherein a switching valve provided outside the heat exchanger is actuated for switching from an operation of the cooling system in the small cooling circuit to an operation in the large cooling circuit, characterized in that, for at least two successive switches from the small cooling circuit to the large cooling circuit, the degree of closure of the first heat-exchanger box is changed by setting different positions of the closure element in that, for a first switch from the small cooling circuit to the large cooling circuit, the degree of closure of the first heat-exchanger box is set to a first value by setting a first position of the closure element and, for a second switch, following the first switch, from the small cooling circuit to the large cooling circuit, the degree of closure of the first heat-exchanger box is set to a second value, which is different from the first value, by setting a second position of the closure element, which is different from the first position.
A method for preparing calcobutrol comprising: preparing a compound of Formula 3 below by using a compound of Formula 2 below or its salt; preparing a compound of Formula 4 below by using the compound of Formula 3; and preparing a compound of Formula 1 below by using the compound of Formula 4. {Wherein, R is linear or branched-chain alkyl of C 1 -C 4} preparing a compound of Formula 3 below by using a compound of Formula 2 below or its salt; preparing a compound of Formula 4 below by using the compound of Formula 3; and preparing a compound of Formula 1 below by using the compound of Formula 4. {Wherein, R is linear or branched-chain alkyl of C 1 -C 4}
A method for generating random numbers which are based on quantum noise, - wherein a first sequence of numbers is generated on the basis of a repeated measurement of a quantum mechanical random process, - wherein a random number is generated on the basis of the first sequence of numbers, - wherein the measurement of the quantum mechanical random process is performed by a measuring apparatus for balanced homodyne detection of an optical input signal (|0, |μ) by means of a laser beam, generated by a laser, as a local oscillator, characterized in that for monitoring the entropy of the first sequence of numbers - a radiation power radiated onto the laser and/or the measuring apparatus is determined by means of an antenna device arranged at least in an immediate vicinity of the laser and/or the measuring device, and/or a share of quantum noise in an output signal of the measuring apparatus is determined at randomly selected times. - wherein a first sequence of numbers is generated on the basis of a repeated measurement of a quantum mechanical random process, - wherein a random number is generated on the basis of the first sequence of numbers, - wherein the measurement of the quantum mechanical random process is performed by a measuring apparatus for balanced homodyne detection of an optical input signal (|0, |μ) by means of a laser beam, generated by a laser, as a local oscillator, characterized in that for monitoring the entropy of the first sequence of numbers - a radiation power radiated onto the laser and/or the measuring apparatus is determined by means of an antenna device arranged at least in an immediate vicinity of the laser and/or the measuring device, and/or a share of quantum noise in an output signal of the measuring apparatus is determined at randomly selected times.
A dual-linear polarization reflectarray antenna with improved cross-polarization properties, comprising a reflectarray and a primary feed configured to illuminate an array of phasing cells of the reflectarray, in which a reflectarray coordinate system (X R,Y R,Z R) is considered, axis Z R being perpendicular to the reflectarray, each phasing cell comprising at least one dielectric layer (6,8;13;19,20) and a conductive plane (9,17), each dielectric layer (6,8;13;19,20) having at least one conductive element (5,7;10,11,12;14,15,16) printed on its surface, the size of each conductive element of each phasing cell being determined to produce a previously defined radiation beam, being also considered in each phasing cell i a local coordinate system (X Ri,Y Ri,Z Ri) centred in the cell and parallel to the reflectarray coordinate system (X R,Y R,Z R), characterized in that the at least one conductive element of each dielectric layer (6,8) of each phasing cell i comprises a conductive patch (5,7) which symmetry axes (X Pi,Y Pi) form a previously calculated angle α i with respect to the corresponding axes (X Ri,Y Ri) of the local coordinate system (X Ri,Y Ri,Z Ri), said angle α i being dependent upon the particular phasing cell considered.
Structural part, comprising: a first component and a second component; a bonded joint, by which the first component and the second component are interconnected with each other; an indication bolt, which is fixed to the first component and the second component, wherein the indication bolt is designed to indicate when the first component and the second component have moved relative to one another; characterized in that the indication bolt has a predetermined breaking point, which deforms under a predetermined loading of the indication bolt or breaks under a predetermined loading of the indication bolt. a first component and a second component; a bonded joint, by which the first component and the second component are interconnected with each other; an indication bolt, which is fixed to the first component and the second component, wherein the indication bolt is designed to indicate when the first component and the second component have moved relative to one another; characterized in that the indication bolt has a predetermined breaking point, which deforms under a predetermined loading of the indication bolt or breaks under a predetermined loading of the indication bolt.
A system for assembling and installing a plurality of wire bundles, the system comprising: a transport tool having a wire bundle-receiving panel and at least one adjustable support; the wire bundle-receiving panel including a first rack and a second rack, a support plate, and a first slide and a second slide, each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot, respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate, and move toward and away from each other; and the at least one adjustable support including an upper component attached to the support plate, a base, and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel. the wire bundle-receiving panel including a first rack and a second rack, a support plate, and a first slide and a second slide, each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot, respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate, and move toward and away from each other; and a first rack and a second rack, a support plate, and a first slide and a second slide, each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot, respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate, and move toward and away from each other; and the at least one adjustable support including an upper component attached to the support plate, a base, and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel. an upper component attached to the support plate, a base, and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel.
A computer implemented method comprising: determining a roadway event, the roadway event including a roadway description describing a roadway condition and a roadway path of road segments representing a roadway location of the roadway event; generating a roadway message, the roadway message including the roadway description and a description of the roadway path, wherein the description of the roadway path includes a link set of one or more link identifiers of a map database, a length of the roadway location of the roadway event, and an offset from a reference node of a starting link, wherein the link set is generated by encoding the roadway path according to a rule that only the starting link and links that are immediately subsequent to a turn in the roadway path are included in the link set; and broadcasting the roadway message for a navigation device having a copy of at least a piece of the map database. determining a roadway event, the roadway event including a roadway description describing a roadway condition and a roadway path of road segments representing a roadway location of the roadway event; generating a roadway message, the roadway message including the roadway description and a description of the roadway path, wherein the description of the roadway path includes a link set of one or more link identifiers of a map database, a length of the roadway location of the roadway event, and an offset from a reference node of a starting link, wherein the link set is generated by encoding the roadway path according to a rule that only the starting link and links that are immediately subsequent to a turn in the roadway path are included in the link set; and broadcasting the roadway message for a navigation device having a copy of at least a piece of the map database.
A method of cultivating a plant comprising a step of irradiating a plant with a red light and a step of irradiating a plant with a blue light, wherein the red light irradiation step and the blue light irradiation step are independently carried out for a predetermined period of time under cultivation conditions such that the humidity in a cultivation atmosphere at the red light irradiation step is higher than that at the blue light irradiation step.
An arrangement for damping vibration attached to a turbocharged internal combustion engine, the arrangement comprising a housing enclosing at least one cavity and a removable cover part for accessing into the cavity and fill material located in the at least one cavity, characterized in that the arrangement comprises a removable container arranged in the at least one cavity and that said fill material is arranged inside the container such that when the engine is vibrating, the arrangement attached to it is excited and the fill material inside the container is self-colliding, which reduces the vibration of the engine.