mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for manufacturing electronic devices comprising: a traveling guide ; a first conveying table ; a second conveying table ; and a first drum , wherein the first conveying table includes: a first traveling device that makes the first conveying table move on the traveling guide ; and a traversing device that moves perpendicularly to a longitudinal direction of the traveling guide , and in that the second conveying table includes a second traveling device that makes the second conveying table move on the traveling guide , and and in that the first drum includes: a first rotation shaft ; a first elevating device for raising and lowering the first drum ; a first rotation device for rotating the first drum around the first rotation shaft ; and a mechanism for controlling a tilt angle in the longitudinal and/or vertical directions of the first rotation shaft of the first drum against the first conveying table , and further includes a third adhesive layer having a selective adhesive region. a first traveling device that makes the first conveying table move on the traveling guide ; and a traversing device that moves perpendicularly to a longitudinal direction of the traveling guide , and in that the second conveying table includes a second traveling device that makes the second conveying table move on the traveling guide , and and in that the first drum includes: and in that the second conveying table includes a second traveling device that makes the second conveying table move on the traveling guide , and and in that the first drum includes: a first rotation shaft ; a first elevating device for raising and lowering the first drum ; a first rotation device for rotating the first drum around the first rotation shaft ; and a mechanism for controlling a tilt angle in the longitudinal and/or vertical directions of the first rotation shaft of the first drum against the first conveying table , and further includes a third adhesive layer having a selective adhesive region.
A cleaning appliance of the cylinder type comprising, a body , whereby the body comprises a cyclonic separating apparatus for separating dirt from a dirt-bearing fluid flow, a floor engaging assembly comprising a main body and a plurality of floor engaging wheels rotatably connected to the main body , the wheels being arranged one on each side of the main body , the main body having a recess in which the cyclonic separating apparatus is received, characterized in that the cleaning appliance is a self righting cleaning appliance which is arranged so that it is urged to return to an upright position if it is tipped onto its side, the floor engaging assembly being a floor engaging rolling assembly , whereby the body has a low centre of gravity, and whereby each wheel has a domed outer surface.
Panel for lining a ceiling or wall in a cabin, in particular the cabin of a passenger aircraft, in which a plate is laminated on both sides with a cover layer cured under pressure and temperature and composed of woven fibre fabric or laid fibre fabric impregnated with resin or with a thermoplastic, wherein the plate has at least one core with a honeycomb structure formed from a multiplicity of in walls , wherein the walls are compressed by 5% to 50% in a predefined region (B) of the plate to improve the sound-insulating properties of the panel, wherein the predefined region (B) of the plate has an area percentage of at least 50% of the panel as a whole and is at least partially surrounded and/or bordered by uncompressed regions of the plate .
Printer having front-end paper feeding and front-end paper outputting and being capable of changing paper discharge path, comprising a shell and a paper discharge unit , wherein the paper discharge unit comprises a first paper discharge mechanism and a paper discharge channel composed of an upper shell body and a lower shell body , and wherein the front end face of the shell is a vertical plane A, a paper inlet and a paper outlet are horizontally formed in the plane A, the paper inlet is located under the paper outlet , and a paper discharge path switchable paper conveying system is arranged in the portion of the paper discharge channel in front of the first paper discharge mechanism , characterized in that the paper conveying system comprises a second paper discharge mechanism , a third paper discharge mechanism and a paper guide plate ; the first paper discharge mechanism , the second paper discharge mechanism , and the third paper discharge mechanism are arranged in sequence; a paper discharge channel B, close to the paper outlet , is arranged between the third paper discharge mechanism and the shell ; the first paper discharge mechanism , the second paper discharge mechanism , and the paper discharge path B compose a first paper discharge path s1; the first paper discharge mechanism , the second paper discharge mechanism and the third paper discharge mechanism compose a second paper discharge path s2; and the paper guide plate is arranged between the third paper discharge mechanism and the second paper discharge mechanism and is used for converting the paper discharge paths.
An apparatus for placing and forming a composite ply onto a contoured tool surface , comprising: a manipulator ; a frame mounted on and transportable by the manipulator ; a flexible forming membrane supported by the frame and configured to be placed over the contoured tool surface ; at least one vacuum suction cup mounted on the flexible forming membrane and configured to engage and grip the composite ply ; a clamping device supported by the frame and configured to clamp a section of the flexible forming membrane and the composite ply on the contoured tool surface ; a plurality of Bernoulli cups mounted on the flexible forming membrane and configured to grip the composite ply while allowing the composite ply to slip therebeneath during forming of a composite ply onto the contoured tool surface , wherein said at least one vacuum suction cup is located substantially along the centerline of the forming membrane while the plurality of Bernoulli cups are located along its opposite edges; and a plurality of forming devices mounted on the frame and configured to form the flexible forming membrane and the composite ply down onto the contoured tool surface . a manipulator ; a frame mounted on and transportable by the manipulator ; a flexible forming membrane supported by the frame and configured to be placed over the contoured tool surface ; at least one vacuum suction cup mounted on the flexible forming membrane and configured to engage and grip the composite ply ; a clamping device supported by the frame and configured to clamp a section of the flexible forming membrane and the composite ply on the contoured tool surface ; a plurality of Bernoulli cups mounted on the flexible forming membrane and configured to grip the composite ply while allowing the composite ply to slip therebeneath during forming of a composite ply onto the contoured tool surface , wherein said at least one vacuum suction cup is located substantially along the centerline of the forming membrane while the plurality of Bernoulli cups are located along its opposite edges; and a plurality of forming devices mounted on the frame and configured to form the flexible forming membrane and the composite ply down onto the contoured tool surface .
A machine tool comprising: a base , a moving unit provided with respect to the base movably in a predetermined axis direction (D1), a ball screw having a nut fixed to the moving unit and a threaded shaft rotated on an axis (AX0) along the axis direction (D1) to move the nut in the axis direction (D1), a cap which covers an end of the threaded shaft and allows rotation of the threaded shaft on the axis (AX0), and a supporting unit provided on the base to support the cap , wherein the cap has a body and a flange expanded larger than the body on the outer side (D1o) thereof with respect to the axis direction (D1), the supporting unit comprises a recess part which receives the body of the cap , the recess part being provided with an opening , and the supporting unit further comprises a positioning part on which an inner surface of the flange abuts in the axis direction (D1) in the state that the body of the cap is received in the recess part , characterized in that the opening allows the threaded shaft to pass in a direction (D2) perpendicular to the axis direction (D1) in the state that the supporting unit is provided on the base . a base , a moving unit provided with respect to the base movably in a predetermined axis direction (D1), a ball screw having a nut fixed to the moving unit and a threaded shaft rotated on an axis (AX0) along the axis direction (D1) to move the nut in the axis direction (D1), a cap which covers an end of the threaded shaft and allows rotation of the threaded shaft on the axis (AX0), and a supporting unit provided on the base to support the cap , wherein the cap has a body and a flange expanded larger than the body on the outer side (D1o) thereof with respect to the axis direction (D1), the supporting unit comprises a recess part which receives the body of the cap , the recess part being provided with an opening , and the supporting unit further comprises a positioning part on which an inner surface of the flange abuts in the axis direction (D1) in the state that the body of the cap is received in the recess part , characterized in that the opening allows the threaded shaft to pass in a direction (D2) perpendicular to the axis direction (D1) in the state that the supporting unit is provided on the base .
A three-phase inverter power supply circuit protecting apparatus comprising: a power supply circuit for converting an AC input voltage into a DC output voltage; a three-phase inverter circuit (3; 30) for receiving the DC output voltage as input and converting it into a three-phase AC voltage; a power supply current detecting circuit for detecting power supply current of the power supply circuit ; a power supply voltage anomaly judging means for judging whether there is a power supply voltage anomaly or not; and a control means for halting the three-phase inverter circuit (3; 30) in response to an output of the power supply voltage anomaly judging means , characterised in that : the apparatus further comprises an inverter input/output power calculating means for calculating an input or an output power or a value equivalent to an input or an output power of the three-phase inverter; and the power supply voltage anomaly judging means is adapted to judge whether there is a power supply voltage anomaly or not based on a relationship between the power supply current obtained by the power supply current detecting circuit and the input or the output power or the value equivalent to the input or the output power of the three-phase inverter. a power supply circuit for converting an AC input voltage into a DC output voltage; a three-phase inverter circuit (3; 30) for receiving the DC output voltage as input and converting it into a three-phase AC voltage; a power supply current detecting circuit for detecting power supply current of the power supply circuit ; a power supply voltage anomaly judging means for judging whether there is a power supply voltage anomaly or not; and a control means for halting the three-phase inverter circuit (3; 30) in response to an output of the power supply voltage anomaly judging means , characterised in that : the apparatus further comprises an inverter input/output power calculating means for calculating an input or an output power or a value equivalent to an input or an output power of the three-phase inverter; and the power supply voltage anomaly judging means is adapted to judge whether there is a power supply voltage anomaly or not based on a relationship between the power supply current obtained by the power supply current detecting circuit and the input or the output power or the value equivalent to the input or the output power of the three-phase inverter. the apparatus further comprises an inverter input/output power calculating means for calculating an input or an output power or a value equivalent to an input or an output power of the three-phase inverter; and the power supply voltage anomaly judging means is adapted to judge whether there is a power supply voltage anomaly or not based on a relationship between the power supply current obtained by the power supply current detecting circuit and the input or the output power or the value equivalent to the input or the output power of the three-phase inverter.
An optoelectronic apparatus for distance measurement in a detection area using a phase-based time-of-flight method, in particular a 3D time-of-flight camera, comprising a transmitting device for transmitting a light signal modulated with at least a first modulation frequency a receiving device having at least one light-receiving element for generating a received signal from the reflected light signal reflected in the detection region , and a control and evaluation unit configured to determine a phase offset between the transmitted light signal and the reflected light signal and, from this, to determine a light time of flight, and to evaluate a first amplitude determined from the received signal in order to determine an erroneous measurement, characterized in that the control and evaluation unit is further configured to detect an erroneous measurement in the form of reflection of the light signal at an object in the detection range outside a uniqueness range of the phase-based light time-of-flight method, by changing the first modulation frequency f 1 during a time-of-flight measurement in a first fluctuation range and comparing the thereby reduced first amplitude of the received signal with an expectation of the first amplitude in a first uniqueness range ([0, D)) and/or more distant distance ranges ([D, 2D), , ...).
A method for determining an item of size information of a drop (T) for analyzing the interaction between a surface of a sample and a liquid, having the following steps: a) applying a drop (T) of a liquid to a sample surface , b) illuminating the drop (T) using several light sources (L 1 , L 2 ) that are each arranged at a light source position in the surroundings of the drop (T), c) detecting light reflections of the light sources (L 1 , L 2 ) that emanate from the drop (T) using a camera (K), wherein a sensor position (K 1 , K 2 ) on a sensor of the camera (K) is determined for each detected light reflection, d) assigning individual light source positions to individual sensor positions (K 1 , K 2 ), such that pairs of one sensor position (K 1 , K 2 ) and one associated light source position each are provided, and e) calculating an item of size information of the drop (T) from the pairs, wherein a plurality of normal vectors ( n ) arranged along an associated eye ray of the camera (K) are calculated for the pairs that describe possible arrangements of a reflected surface region, and wherein an assumed drop surface is varied and compared with the normal vectors ( n ) calculated for the pairs in an optimization process. a) applying a drop (T) of a liquid to a sample surface , b) illuminating the drop (T) using several light sources (L 1 , L 2 ) that are each arranged at a light source position in the surroundings of the drop (T), c) detecting light reflections of the light sources (L 1 , L 2 ) that emanate from the drop (T) using a camera (K), wherein a sensor position (K 1 , K 2 ) on a sensor of the camera (K) is determined for each detected light reflection, d) assigning individual light source positions to individual sensor positions (K 1 , K 2 ), such that pairs of one sensor position (K 1 , K 2 ) and one associated light source position each are provided, and e) calculating an item of size information of the drop (T) from the pairs, wherein a plurality of normal vectors ( n ) arranged along an associated eye ray of the camera (K) are calculated for the pairs that describe possible arrangements of a reflected surface region, and wherein an assumed drop surface is varied and compared with the normal vectors ( n ) calculated for the pairs in an optimization process.
A process for the production of diesel fuel comprising the steps of: a) producing a syngas feed from natural gas and/or natural gas liquids and/or carbon dioxide using a partial oxidation system; b) performing a syngas cleanup and conditioning process on the syngas feed to provide a cleaned up syngas feed; c) reducing a supported catalyst in-situ in a fixed bed reactor, wherein the supported catalyst has an effective pellet radius of 600 microns or less, an average pore diameter greater than about 80 angstroms, a crush strength of greater than 1.36 kg/mm (3 lbs/mm), a BET surface area of greater than 150 m 2 /g and a dispersion value of 4%; d) reacting the cleaned up syngas feed that contains hydrogen and carbon monoxide with the supported catalyst to produce a product gas stream, wherein the product gas stream comprises F-T liquids, light gases and a wax, e) condensing out the product gas stream into a product mixture comprising diesel, water and wax in a single knock out vessel wherein the wax stays entrained in the water fraction for ease of separation from the diesel fuel fraction; f) recycling the wax fraction back to the partial oxidation system in addition to the natural gas and/or natural gas liquids and/or carbon dioxide primary feedstocks to produce the syngas feed; wherein the diesel fuel fraction is produced without requiring the hydro processing of wax. a) producing a syngas feed from natural gas and/or natural gas liquids and/or carbon dioxide using a partial oxidation system; b) performing a syngas cleanup and conditioning process on the syngas feed to provide a cleaned up syngas feed; c) reducing a supported catalyst in-situ in a fixed bed reactor, wherein the supported catalyst has an effective pellet radius of 600 microns or less, an average pore diameter greater than about 80 angstroms, a crush strength of greater than 1.36 kg/mm (3 lbs/mm), a BET surface area of greater than 150 m 2 /g and a dispersion value of 4%; d) reacting the cleaned up syngas feed that contains hydrogen and carbon monoxide with the supported catalyst to produce a product gas stream, wherein the product gas stream comprises F-T liquids, light gases and a wax, e) condensing out the product gas stream into a product mixture comprising diesel, water and wax in a single knock out vessel wherein the wax stays entrained in the water fraction for ease of separation from the diesel fuel fraction; f) recycling the wax fraction back to the partial oxidation system in addition to the natural gas and/or natural gas liquids and/or carbon dioxide primary feedstocks to produce the syngas feed;
A sample separating method for separating motile organisms from other organisms, the method comprising: controlling a fluid delivery unit to provide a fluid flow to a sample separating device comprising a fluid inlet and a fluid terminus, wherein the fluid flow is provided between the fluid inlet and the fluid terminus of the device, wherein the fluid flow has a sample introduction flow velocity set so that a sample may be introduced into a sample introduction zone of the device, and wherein the sample introduction flow velocity is sufficiently high such that an organism in the sample is unable to exit the sample introduction zone; and controlling the fluid delivery unit to reduce the fluid flow velocity from the sample introduction flow velocity to an operational flow velocity lower than the sample introduction flow velocity, wherein the operational flow velocity is selected such that motile organisms in the sample are able to swim against the fluid flow and enter a sample collection zone of the device, characterised in that controlling the fluid delivery unit to set the fluid flow to have the operational flow velocity comprises reducing the fluid flow velocity from the sample introduction flow velocity to the operational flow velocity over a predetermined period of time. controlling a fluid delivery unit to provide a fluid flow to a sample separating device comprising a fluid inlet and a fluid terminus, wherein the fluid flow is provided between the fluid inlet and the fluid terminus of the device, wherein the fluid flow has a sample introduction flow velocity set so that a sample may be introduced into a sample introduction zone of the device, and wherein the sample introduction flow velocity is sufficiently high such that an organism in the sample is unable to exit the sample introduction zone; and controlling the fluid delivery unit to reduce the fluid flow velocity from the sample introduction flow velocity to an operational flow velocity lower than the sample introduction flow velocity, wherein the operational flow velocity is selected such that motile organisms in the sample are able to swim against the fluid flow and enter a sample collection zone of the device,
Container for producing of a beverage capsule containing a beverage ingredient, consisting of a formed laminated structure comprising a cup portion with a depth-to-width ratio of at least 0.3 and a peripheral flange ; said laminated structure comprising an aluminium foil as a middle layer and comprising on the inner side of the aluminium foil a sealing layer ; characterized in that the laminated structure further comprises at least one outer polymer film laminated on the outer side of the aluminium foil using a laminating adhesive layer and in that the outer polymer film is printed at its inner surface and is made of semi-crystalline polymer.
A method of measuring an inclination of a tower of a wind turbine including a nacelle mounted on the tower , comprising: collecting acceleration data from an accelerometer operatively coupled to the nacelle and configured to sense acceleration along an accelerometer axis ( x, y, z ) while the nacelle is in each of a plurality of yaw positions; determining a level of acceleration along the accelerometer axis ( x, y, z ) due to gravity at each yaw position to generate a plurality of acceleration levels; and determining the inclination of the tower based on the plurality of acceleration levels further comprising the steps: collecting a first data set of the acceleration data during a first period of time; collecting a second data set of the acceleration data during a second period of time; determining a first inclination of the tower from the first data set; determining a second inclination of the tower from the second data set; and determining a time-dependent effect of a presence or an absence of sunlight on the inclination of the tower based on the first inclination of the tower and the second inclination of the tower . collecting acceleration data from an accelerometer operatively coupled to the nacelle and configured to sense acceleration along an accelerometer axis ( x, y, z ) while the nacelle is in each of a plurality of yaw positions; determining a level of acceleration along the accelerometer axis ( x, y, z ) due to gravity at each yaw position to generate a plurality of acceleration levels; and determining the inclination of the tower based on the plurality of acceleration levels further comprising the steps: collecting a first data set of the acceleration data during a first period of time; collecting a second data set of the acceleration data during a second period of time; determining a first inclination of the tower from the first data set; determining a second inclination of the tower from the second data set; and determining a time-dependent effect of a presence or an absence of sunlight on the inclination of the tower based on the first inclination of the tower and the second inclination of the tower . collecting a first data set of the acceleration data during a first period of time; collecting a second data set of the acceleration data during a second period of time; determining a first inclination of the tower from the first data set; determining a second inclination of the tower from the second data set; and determining a time-dependent effect of a presence or an absence of sunlight on the inclination of the tower based on the first inclination of the tower and the second inclination of the tower .