mhurhangee/ep-ind-claims huggingface dataset:
Container for a viscous liquid, in particular a colorant for paint, comprising a stirrer having a rotatable shaft and a series of paddles connected to the shaft along the length of the shaft] characterised in that the paddles are connected to the shaft by means of arms, the paddles and/or the arms between the paddles and the shaft are flexible, wherein the arms connect asymmetrically to the paddles, wherein at least some of the paddles are at an inclination in a range from 30 to 60 degrees relative to the shaft.
Structural element in the form of a column, for architectural construction of frame walls of buildings, containing: - shaft in the form of a vertical support beam, which shaft has a bottom contact surface on the lower side; - head connected to the top of the shaft, which head extends substantially horizontally, perpendicular to the Z-axis of the shaft and symmetrical with respect to the shaft, in at least two opposite directions forming at least two side arms, and from above the head includes the top surface of the head; characterized in that the head on the top surface of the head has at least two tongues, which on the top have an upper contact surface and are located essentially at the edges of the head, and at least two grooves, which on the bottom have a bottom contact surface, which grooves are located essentially at the center of the top surface of the head and the shape of the individual tongue corresponds to the shape of the individual groove. - shaft in the form of a vertical support beam, which shaft has a bottom contact surface on the lower side; - head connected to the top of the shaft, which head extends substantially horizontally, perpendicular to the Z-axis of the shaft and symmetrical with respect to the shaft, in at least two opposite directions forming at least two side arms, and from above the head includes the top surface of the head;
A fault tolerant electric drive system comprising an alternator, a motor controller and an electric motor, wherein the alternator and motor each have a plurality of corresponding independent phase windings, the motor controller having a plurality of independent phase drives corresponding to the phase windings, wherein each motor controller phase drive is configured to connect independently each phase winding of the alternator to a corresponding phase winding of the electric motor and comprises a phase controller and a power bridge, the power bridge being adapted to receive a first AC current from the alternator phase winding, and to output a second AC current to the corresponding electric motor phase winding, the phase controller being arranged to control the second AC current via the power bridge output in response to a command input thereto.
A system, comprising: one or more modems (1831;, 1815, 1814, 1813, 1812) for enabling a wireless end user communications device to communicate at least over a wireless access network; a processor of the wireless end user communications device, and memory coupled to the processor and configured to provide the processor with instructions; wherein the processor is configured to, depending on the wireless access network type:; facilitate a plurality of simultaneous quality-of-service (QoS) connections between the wireless end user communications device and a network system communicatively coupled to the wireless end user communications device by the wireless access network, associate a particular service activity of the wireless end user communications device with a particular QoS connection of the plurality of simultaneous QoS connections, and assist in implementing a first traffic control configured to control attempted or successful communications associated with the particular service activity over the particular QoS connection; and/or assist in implementing a second traffic control configured to control attempted or successful communications associated with the particular service activity, the second traffic control being different from the first traffic control. one or more modems (1831;, 1815, 1814, 1813, 1812) for enabling a wireless end user communications device to communicate at least over a wireless access network; a processor of the wireless end user communications device, and memory coupled to the processor and configured to provide the processor with instructions; wherein the processor is configured to, depending on the wireless access network type:; facilitate a plurality of simultaneous quality-of-service (QoS) connections between the wireless end user communications device and a network system communicatively coupled to the wireless end user communications device by the wireless access network, associate a particular service activity of the wireless end user communications device with a particular QoS connection of the plurality of simultaneous QoS connections, and assist in implementing a first traffic control configured to control attempted or successful communications associated with the particular service activity over the particular QoS connection; and/or assist in implementing a second traffic control configured to control attempted or successful communications associated with the particular service activity, the second traffic control being different from the first traffic control.
A method comprising the steps of: causing a spatial light modulator to present a first hologram; causing a laser light, after being phase-modulated by the spatial light modulator, to be condensed to plurality of condensing positions by a condensing optical system; and characterized by: measuring an energy of the laser light at the respective condensing positions; determining a reference energy (Ibase) from the measured energies; and creating a second hologram based on the reference energy. causing a spatial light modulator to present a first hologram; causing a laser light, after being phase-modulated by the spatial light modulator, to be condensed to plurality of condensing positions by a condensing optical system; and characterized by: measuring an energy of the laser light at the respective condensing positions; determining a reference energy (Ibase) from the measured energies; and creating a second hologram based on the reference energy. measuring an energy of the laser light at the respective condensing positions; determining a reference energy (Ibase) from the measured energies; and creating a second hologram based on the reference energy.
An X-ray image processing method comprising: obtaining a first X-ray image of an object including a plurality of materials comprising a first material and a second material different from the first material; obtaining three-dimensional information about the object using a 3D camera; obtaining first information about a thickness of the object based on the 3D information; and obtaining second information related to a three-dimensional structure of the first material by decomposing the first material from the object based on the first information and the first X-ray image. obtaining a first X-ray image of an object including a plurality of materials comprising a first material and a second material different from the first material; obtaining three-dimensional information about the object using a 3D camera; obtaining first information about a thickness of the object based on the 3D information; and obtaining second information related to a three-dimensional structure of the first material by decomposing the first material from the object based on the first information and the first X-ray image.
A process for depositing a coating on a glass substrate, said process being characterized in that it comprises the following successive steps: a) passing said substrate through a device for vacuum deposition by cathode sputtering, b) introducing a gas into said vacuum deposition device and generating a plasma from said gas, c) co-sputtering simultaneously, in one and the same chamber of the vacuum deposition device, - a first constituent made of a material consisting of an oxide, a nitride or an oxynitride of a first element and - a second constituent consisting of the metallic form of a second element, said co-sputtering being obtained by means of said plasma, d) introducing a hydride, a halide or an organic compound of a third element, different than the first element, into said plasma, e) recovering said substrate, covered with said coating comprising said first, second and third elements, at the outlet of the device, said coating consisting of metal nanoparticles of the second element dispersed in an inorganic matrix of said first and third elements, said coating displaying a plasmon absorption peak in the visible region, or recovering said substrate covered with said coating comprising said first, second and third elements at the outlet of the device and heating the whole at a suitable temperature and for a sufficient time to obtain a coating consisting of metal nanoparticles of the second element dispersed in an inorganic matrix of said first and third elements, said coating displaying a plasmon absorption peak in the visible region. a) passing said substrate through a device for vacuum deposition by cathode sputtering, b) introducing a gas into said vacuum deposition device and generating a plasma from said gas, c) co-sputtering simultaneously, in one and the same chamber of the vacuum deposition device, - a first constituent made of a material consisting of an oxide, a nitride or an oxynitride of a first element and - a second constituent consisting of the metallic form of a second element, said co-sputtering being obtained by means of said plasma, - a first constituent made of a material consisting of an oxide, a nitride or an oxynitride of a first element and - a second constituent consisting of the metallic form of a second element, d) introducing a hydride, a halide or an organic compound of a third element, different than the first element, into said plasma, e) recovering said substrate, covered with said coating comprising said first, second and third elements, at the outlet of the device, said coating consisting of metal nanoparticles of the second element dispersed in an inorganic matrix of said first and third elements, said coating displaying a plasmon absorption peak in the visible region, or recovering said substrate covered with said coating comprising said first, second and third elements at the outlet of the device and heating the whole at a suitable temperature and for a sufficient time to obtain a coating consisting of metal nanoparticles of the second element dispersed in an inorganic matrix of said first and third elements, said coating displaying a plasmon absorption peak in the visible region.
A method for testing an engine component for blockage of one or more through-holes in at least a portion of a wall thereof, wherein the portion of the wall comprises a known pattern of through-holes therein extending between first and second sides of the wall the through-holes the method comprising: (i) providing in a first region to the first side of the wall a supply of a test fluid, wherein the test fluid comprises an active material able to scatter electromagnetic radiation incident thereon; (ii) causing or permitting a flow of the test fluid to occur from the first region to a second region to the second side of the wall; (iii) illuminating the second region with electromagnetic radiation to cause scattering of electromagnetic radiation by the active material exiting substantially non-blocked through-holes in the wall portion having passed therethrough from the first side to the second side; (iv) detecting said scattering of electromagnetic radiation from said substantially non-blocked through-holes; wherein particle sizes of the active material are significantly smaller than the minimum diameter of the through-holes of the component wall, or portion thereof, whereby to permit unobstructed passage of the active material through non-blocked through-holes and (v) comparing said detected scattering of electromagnetic radiation from said substantially non-blocked holes with the known pattern of through-holes in the component wall portion to determine the presence and/or location and/or identity of any blocked or partially blocked through-holes in the component wall portion. (i) providing in a first region to the first side of the wall a supply of a test fluid, wherein the test fluid comprises an active material able to scatter electromagnetic radiation incident thereon; (ii) causing or permitting a flow of the test fluid to occur from the first region to a second region to the second side of the wall; (iii) illuminating the second region with electromagnetic radiation to cause scattering of electromagnetic radiation by the active material exiting substantially non-blocked through-holes in the wall portion having passed therethrough from the first side to the second side; (iv) detecting said scattering of electromagnetic radiation from said substantially non-blocked through-holes; wherein particle sizes of the active material are significantly smaller than the minimum diameter of the through-holes of the component wall, or portion thereof, whereby to permit unobstructed passage of the active material through non-blocked through-holes and (v) comparing said detected scattering of electromagnetic radiation from said substantially non-blocked holes with the known pattern of through-holes in the component wall portion to determine the presence and/or location and/or identity of any blocked or partially blocked through-holes in the component wall portion.
Swivelling axle bearing, on which a swivelling axis of a swivelling wall of a recreational vehicle, in particular of a wet room of a recreational vehicle, can be mounted, a bearing bush being provided, which is arranged at the bottom of the swivelling axis in the mounted state, characterised in that a siphon is provided into which, in the mounted state, a fluid line guided through the swivelling axis to the siphon leads.
A nerve location apparatus for identifying a location on a patient's skin for placement of a neurostimulation electrode patch on the patient's skin to stimulate a nerve, said apparatus comprising: an electrode array patch comprising a supporting structure and an array of concentric electrodes mounted on the supporting structure, each electrode of the array of electrodes having a cathode and an anode that are spaced concentrically apart from each other on the supporting structure; a power source mounted on the supporting structure; and a stimulation generator mounted on the supporting structure electrically coupled to each of the electrodes of the array of concentric electrodes and generating a signal, each electrode of the array of concentric electrodes being individually energizeable by the signal generated by the stimulation generator to determine the location for placement of the neurostimulation electrode patch on the patient's skin to stimulate the nerve. an electrode array patch comprising a supporting structure and an array of concentric electrodes mounted on the supporting structure, each electrode of the array of electrodes having a cathode and an anode that are spaced concentrically apart from each other on the supporting structure; a power source mounted on the supporting structure; and a stimulation generator mounted on the supporting structure electrically coupled to each of the electrodes of the array of concentric electrodes and generating a signal, each electrode of the array of concentric electrodes being individually energizeable by the signal generated by the stimulation generator to determine the location for placement of the neurostimulation electrode patch on the patient's skin to stimulate the nerve.
Compound of formula la, (M 1-x-u-p,)(Mg 1-z-v-q,Al z-m) (Si 2-z,T z-n)O 6: Ax, By, Cw la wherein M denotes at least one alkaline earth element selected from Ca, Sr, or Ba, T denotes at least one trivalent element selected from Al, Ga, In, or Sc, A and B denote differently from each other, a divalent element selected from Pb 2+, Mn 2+, Yb 2+, Sm 2+, Eu 2+, Dy 2+, or Ho 2+, and C denotes a trivalent element selected from Y 3+, La 3+, Ce 3+, Pr 3+, Nd 3+, Pm 3+, Sm 3+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 3+, Yb 3+, Lu 3+, or Bi 3+, with the proviso that at least two elements selected from A, B or C have to be present, and m + n + q + p = w, whereby m ≥ 0, n ≥ 0, p ≥ 0 and q ≥ 0, u + v = y, whereby v ≥ 0, u ≥ 0, 0 ≤ w < 0.3, 0 ≤ x < 0.5, 0 ≤ y < 0.5, whereby at least two of the indices w, x and y, have to be larger than 0, and 0 < z < 0.5. M denotes at least one alkaline earth element selected from Ca, Sr, or Ba, T denotes at least one trivalent element selected from Al, Ga, In, or Sc, A and B denote differently from each other, a divalent element selected from Pb 2+, Mn 2+, Yb 2+, Sm 2+, Eu 2+, Dy 2+, or Ho 2+, and C denotes a trivalent element selected from Y 3+, La 3+, Ce 3+, Pr 3+, Nd 3+, Pm 3+, Sm 3+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 3+, Yb 3+, Lu 3+, or Bi 3+, with the proviso that at least two elements selected from A, B or C have to be present, and m + n + q + p = w, whereby m ≥ 0, n ≥ 0, p ≥ 0 and q ≥ 0, u + v = y, whereby v ≥ 0, u ≥ 0, 0 ≤ w < 0.3, 0 ≤ x < 0.5, 0 ≤ y < 0.5, whereby at least two of the indices w, x and y, have to be larger than 0, and 0 < z < 0.5.
A digital predistortion processing method, comprising: performing digital predistortion processing on a baseband signal according to a first predistortion correction parameter, converting the baseband signal after the digital predistortion processing into a radio-frequency signal, power dividing the radio-frequency signal, and respectively outputting each path of the radio-frequency signal to a distinct power amplifier; coupling and outputting the radio-frequency signal output by each power amplifier to a feedback link for combination to obtain a combined signal, and performing conversion processing on the combined signal; and generating a second predistortion correction parameter according to the combined signal after the conversion processing and the baseband signal before the digital predistortion processing, and updating the first predistortion correction parameter as the second predistortion correction parameter. performing digital predistortion processing on a baseband signal according to a first predistortion correction parameter, converting the baseband signal after the digital predistortion processing into a radio-frequency signal, power dividing the radio-frequency signal, and respectively outputting each path of the radio-frequency signal to a distinct power amplifier; coupling and outputting the radio-frequency signal output by each power amplifier to a feedback link for combination to obtain a combined signal, and performing conversion processing on the combined signal; and generating a second predistortion correction parameter according to the combined signal after the conversion processing and the baseband signal before the digital predistortion processing, and updating the first predistortion correction parameter as the second predistortion correction parameter.
Gas distribution device comprising: - a main body passed through by an internal gas passage being used to channel a gas and - a mobile actuating member engaging with a flow selection system arranged on the internal gas passage, the actuating member being secured to said main body and movable by a user to select a desired gas flow, - the actuating member engaging with the flow selection system by way of a mobile drive element, - the actuating member comprising at least one housing and the mobile drive element comprising at least one abutment element protruding over a surface of said mobile drive element, or the mobile drive element comprising at least one housing and the actuating member comprising at least one abutment element protruding over a surface of said actuating member, and - said at least one abutment element being housed in said at least one housing to retain the actuating member fixed secured to said mobile drive element, characterised in that said housing(s) is/are bordered by one or more wall elements each forming a deformation and rupture zone designed to be broken during a disassembly of the actuating member of the mobile drive element. - a main body passed through by an internal gas passage being used to channel a gas and - a mobile actuating member engaging with a flow selection system arranged on the internal gas passage, the actuating member being secured to said main body and movable by a user to select a desired gas flow, - the actuating member engaging with the flow selection system by way of a mobile drive element, - the actuating member comprising at least one housing and the mobile drive element comprising at least one abutment element protruding over a surface of said mobile drive element, or the mobile drive element comprising at least one housing and the actuating member comprising at least one abutment element protruding over a surface of said actuating member, and - said at least one abutment element being housed in said at least one housing to retain the actuating member fixed secured to said mobile drive element,
An IC chip mounting method which mounts two or more IC chips on a base, comprising the steps of: preparing a wafer by mounting an elastic tape on a face thereof, which is the reverse of the wafer having a mounting surface to be attached to the base, and by dividing the wafer into IC chips by dicing while leaving the tape; positioning the wafer to face the base in such a direction that the mounting surface to be attached to the base faces the base; sequentially pressing the IC chips on the wafer against the base by stretching the tape and temporarily fixing the IC chips while the base is being fed in a prescribed one-dimensional direction along the wafer and while the wafer is being moved two-dimensionally along the base; and fixing the IC chips temporarily fixed on the base on the base by heating and pressurizing in a batch manner. preparing a wafer by mounting an elastic tape on a face thereof, which is the reverse of the wafer having a mounting surface to be attached to the base, and by dividing the wafer into IC chips by dicing while leaving the tape; positioning the wafer to face the base in such a direction that the mounting surface to be attached to the base faces the base; sequentially pressing the IC chips on the wafer against the base by stretching the tape and temporarily fixing the IC chips while the base is being fed in a prescribed one-dimensional direction along the wafer and while the wafer is being moved two-dimensionally along the base; and fixing the IC chips temporarily fixed on the base on the base by heating and pressurizing in a batch manner.