mhurhangee/ep-ind-claims huggingface dataset:
A moire magnification device comprising a transparent substrate carrying: i) a regular array of micro-focusing elements on a first surface, the focusing elements defining a focal plane; ii) a corresponding first array of microimage elements in a first colour and located in a plane substantially coincident with the focal plane of the focusing elements; and, iv) a corresponding second array of microimage elements, in a second colour different from the first colour, and characterised by being located in a plane substantially coincident with the focal plane of the focusing elements; wherein the pitches of the micro-focusing elements and first and second arrays of microimage elements and their relative locations are such that the array of micro-focusing elements cooperates with each of the first and second arrays of microimage elements to generate respective magnified versions of the microimage elements of each array due to the moire effect and such that the magnified version of the first array of microimage elements is viewed against a background defined by the magnified version of the second array of microimage elements, the magnified version of the first array of microimage elements exhibiting movement relative to the background when the device is tilted, and wherein the pitch mismatch between the arrays is chosen such that the magnified version of the elements of the first array appears above or below the magnified version of the elements of the second array. i) a regular array of micro-focusing elements on a first surface, the focusing elements defining a focal plane; ii) a corresponding first array of microimage elements in a first colour and located in a plane substantially coincident with the focal plane of the focusing elements; and, iv) a corresponding second array of microimage elements, in a second colour different from the first colour, and characterised by being located in a plane substantially coincident with the focal plane of the focusing elements; wherein the pitches of the micro-focusing elements and first and second arrays of microimage elements and their relative locations are such that the array of micro-focusing elements cooperates with each of the first and second arrays of microimage elements to generate respective magnified versions of the microimage elements of each array due to the moire effect and such that the magnified version of the first array of microimage elements is viewed against a background defined by the magnified version of the second array of microimage elements, the magnified version of the first array of microimage elements exhibiting movement relative to the background when the device is tilted, and wherein the pitch mismatch between the arrays is chosen such that the magnified version of the elements of the first array appears above or below the magnified version of the elements of the second array.
A method performed by a terminal in a communication system supporting a licensed assisted access, LAA, the method comprising: receiving, from a base station, control information for an uplink scheduling, the control information including information for a reference starting position of a physical uplink shared channel, PUSCH; and transmitting, to the base station, data based on the information for the reference starting position of the PUSCH, wherein the information for the reference starting position of the PUSCH indicates a starting single carrier frequency division multiple access, SC-FDMA, symbol and a starting position within the starting SC-FDMA symbol. receiving, from a base station, control information for an uplink scheduling, the control information including information for a reference starting position of a physical uplink shared channel, PUSCH; and transmitting, to the base station, data based on the information for the reference starting position of the PUSCH, wherein the information for the reference starting position of the PUSCH indicates a starting single carrier frequency division multiple access, SC-FDMA, symbol and a starting position within the starting SC-FDMA symbol.
Method for connecting a control unit as inverter or converter to a sensorless operated asynchronous machine with stator windings that is rotatable with a mechanical speed, wherein the asynchronous machine is controlled by the control unit, characterized by the method comprising the following steps: (a) determination of a stator current vector ( i s) from measured currents at the stator windings of the asynchronous machine and determination of a stator voltage vector ( u s); (b) calculation of a stator flux change vector ( dΨ s /dt) from the stator current vector ( i s), stator voltage vector ( u s) and a stator resistance (R s) according to a machine model; (c) calculation of an angle difference between stator current vector ( i s) and stator flux change vector ( dΨ s/dt); (d) controlling the calculated angle difference to a setpoint of +90° or -90°, wherein an output signal of a corresponding controller as angle difference controller corresponds to a rotating field frequency (ω) of the stator voltage vector to be impressed and the setpoint is determined depending on the rotation direction of a stator rotating field frequency of +90° or -90°; (e) controlling an amplitude of the stator voltage vector by means of a current controller which, at the entrance, is supplied with a difference from a current setpoint and a value corresponding to the amplitude of the stator current as control difference; (f) wherein the connecting is a connecting of the control unit to the asynchronous machine or the mechanical speed of the asynchronous machine substantially is zero. (a) determination of a stator current vector ( i s) from measured currents at the stator windings of the asynchronous machine and determination of a stator voltage vector ( u s); (b) calculation of a stator flux change vector ( dΨ s /dt) from the stator current vector ( i s), stator voltage vector ( u s) and a stator resistance (R s) according to a machine model; (c) calculation of an angle difference between stator current vector ( i s) and stator flux change vector ( dΨ s/dt); (d) controlling the calculated angle difference to a setpoint of +90° or -90°, wherein an output signal of a corresponding controller as angle difference controller corresponds to a rotating field frequency (ω) of the stator voltage vector to be impressed and the setpoint is determined depending on the rotation direction of a stator rotating field frequency of +90° or -90°; (e) controlling an amplitude of the stator voltage vector by means of a current controller which, at the entrance, is supplied with a difference from a current setpoint and a value corresponding to the amplitude of the stator current as control difference; (f) wherein the connecting is a connecting of the control unit to the asynchronous machine or the mechanical speed of the asynchronous machine substantially is zero.
A control method for operating a cooking oven in a deep-frying program which is configured for a predetermined set temperature, the cooking oven having an oven cavity, a tray arranged within the oven cavity, a bottom heating element for heating the bottom of the cavity, a fan located at the rear wall of the cavity, and a ring heating element surrounding the fan, the method comprising the following stages: (a) a heat-up phase in which the ring heating element is continuously operated and the bottom heating element is intermittently operated, the heat-up phase being conducted until reaching a temperature of the oven cavity which corresponds to the set temperature plus a predetermined first hysteresis; (b) a subsequent holding phase in which the bottom heating element and the ring heating element are non-operative; and (c) a frying phase conducted upon reaching a temperature within the oven cavity which corresponds to the set temperature minus a predetermined second hysteresis, the frying phase comprising continuously or intermittently operating the ring heating element, and intermittently operating the bottom heating element so as to raise the temperature within the oven cavity to a temperature which corresponds to the set temperature plus a predetermined third hysteresis. (a) a heat-up phase in which the ring heating element is continuously operated and the bottom heating element is intermittently operated, the heat-up phase being conducted until reaching a temperature of the oven cavity which corresponds to the set temperature plus a predetermined first hysteresis; (b) a subsequent holding phase in which the bottom heating element and the ring heating element are non-operative; and (c) a frying phase conducted upon reaching a temperature within the oven cavity which corresponds to the set temperature minus a predetermined second hysteresis, the frying phase comprising continuously or intermittently operating the ring heating element, and intermittently operating the bottom heating element so as to raise the temperature within the oven cavity to a temperature which corresponds to the set temperature plus a predetermined third hysteresis.
A method for establishing a secure tunnel to a trusted packet data gateway upon a mobile node initially attaching to or performing a handover to a target access network, the method comprising the steps of: determining from a reachability list maintained in the mobile node at least one trusted packet data gateway that is reachable through the target access network, wherein the reachability list is listing data sets indicating data paths and the reachability status of respective known trusted packet data gateways for each respective data path, and establishing a secure tunnel to the trusted packet data gateway determined from the reachability list maintained in the mobile node. determining from a reachability list maintained in the mobile node at least one trusted packet data gateway that is reachable through the target access network, wherein the reachability list is listing data sets indicating data paths and the reachability status of respective known trusted packet data gateways for each respective data path, and establishing a secure tunnel to the trusted packet data gateway determined from the reachability list maintained in the mobile node.
Method of contrasting the jumping triggered by a resonance oscillation in a motor vehicle with three or four wheels, said motor vehicle comprising: - a forecarriage frame; - at least a pair of front wheels (10', 10") kinematically connected to each other and to the forecarriage frame by means of a rolling kinematic mechanism; - a roll block system suitable to block the rolling of the two front wheels (10', 10"), wherein said roll block system acts directly or indirectly on said rolling kinematic mechanism, said method comprising the operating steps of: - a) detecting a resonance oscillation which is triggered while driving the motor vehicle and generates an alternate jumping of the rolling kinematic mechanism, wherein said step a) of detecting generates selectively: an active resonance signal related to the presence of resonance oscillations of rolling kinematic mechanism; and a passive resonance signal related to the non-presence of resonance oscillations of rolling kinematic mechanism; - b) actuating said roll block system in presence of said active resonance signal; - b') keeping said roll block system neutral in presence of said passive resonance signal, wherein said step of actuating said roll block system is suitable to damp the resonance oscillations resulting in a progressive damping of the alternate jumping of the rolling kinematic mechanism and thus of the front wheels (10', 10"), until annulling said oscillations and wherein said detection of a resonance oscillation is achieved by means of at least one sensor (81, 82) placed on said front wheels (10', 10") and/or on said rolling kinematic mechanism. - a) detecting a resonance oscillation which is triggered while driving the motor vehicle and generates an alternate jumping of the rolling kinematic mechanism, wherein said step a) of detecting generates selectively: an active resonance signal related to the presence of resonance oscillations of rolling kinematic mechanism; and a passive resonance signal related to the non-presence of resonance oscillations of rolling kinematic mechanism; - b) actuating said roll block system in presence of said active resonance signal; - b') keeping said roll block system neutral in presence of said passive resonance signal,
A composition for use in a method of photoprotecting human keratinous material against solar UV radiation, the composition comprising a dispersion of photonic particles with a mean size in the range 1 μm to 500 μm, each comprising a diffracting arrangement of monodisperse nanoparticles or voids, the diffraction spectrum of said arrangement including a first order reflection peak in the wavelength range 250 nm to 400 nm, said photonic particles being substantially spherical in shape.
Depth detection apparatus, in particular in intracorneal dissection, comprising a perforating tubular element suitable for being inserted into the cornea, a reciprocally moving air volume generator connected to the perforating tubular element, characterised by comprising a pressure sensor for detecting the pressure along the connection between the volumetric generator and the perforating element in the reciprocal movement of the volumetric generator, a microcontroller connected to the pressure sensor to detect variations in the aforesaid pressure with the advancement in depth into the cornea of the perforating element, signalling means connected to the microcontroller to signal that a preset pressure variation has been reached.
Omnidirectional Voith-Schneider variable pitch propeller with constant speed comprising a main engine, a machine bed, a main shaft, a turntable, a steering gear, a steering shaft, a central gear, a bridging gear, a propeller blade gear, propeller blades and propeller blade shafts, characterized in that the engine is a sun gear for rotation, wherein the sun gear meshes with a planet gear, and wherein the planet gear meshes with a ring gear, and wherein the ring gear is meshed with a speed control gear, and wherein the speed control gear is driven by an auxiliary drive for rotation; and wherein the planet gear rotatably cooperates with a fixed shaft on the planet carrier, and wherein the planet carrier via the main shaft is coupled to the turntable, and wherein the main shaft with the Machine bed rotatably cooperates; and wherein the steering shaft successively passes through the sun gear, the main shaft and the turntable, and wherein one end of the steering shaft is coupled to the steering gear, and wherein the other end of the steering shaft passes through the turntable and is then coupled to the central gear, which is located within the turntable; and wherein further a plurality of propeller blade shafts cooperate within the turntable, and wherein the propeller blade shafts are aligned parallel to the main shaft, and wherein the plurality of propeller blade shafts are evenly distributed along the circumferential direction around the central gear which serves as the center, and wherein the propeller blade shaft passes through the propeller blade gear and is fixedly connected to it, and wherein the propeller blade gear via the bridging gear meshes with the central gear; and wherein one end of the propeller blade shaft is connected to the propeller blade.
Method for determining a product quality that results from a manufacturing method based on a generated predictive model; comprising: a simulative determination of one of multiple manufacturing state variables as a function of a scattering manufacturing state variable of the manufacturing state variables; a sensory detection of one of the manufacturing state variables; and an associative determination of the product quality as a function of the manufacturing state variables obtained through simulative determination and through sensory detection, wherein these manufacturing state variables are used as input variables for the associative determination, wherein the associative determination comprises performing a machine learning method, and wherein through associative determination the total of all determined or recorded manufacturing state variables are connected or linked to a product quality Q of the manufactured product on the basis of the predictive model (108, 408), provision of the predictive model, which is able to make a statement regarding a product quality on the basis of manufacturing state variables. a simulative determination of one of multiple manufacturing state variables as a function of a scattering manufacturing state variable of the manufacturing state variables; a sensory detection of one of the manufacturing state variables; and an associative determination of the product quality as a function of the manufacturing state variables obtained through simulative determination and through sensory detection, wherein these manufacturing state variables are used as input variables for the associative determination, wherein the associative determination comprises performing a machine learning method, and wherein through associative determination the total of all determined or recorded manufacturing state variables are connected or linked to a product quality Q of the manufactured product on the basis of the predictive model (108, 408), provision of the predictive model, which is able to make a statement regarding a product quality on the basis of manufacturing state variables.
Reducing agent metering system for the injection of a reducing agent into the flow of exhaust gas from a combustion engine, for selective catalytic reduction, wherein the metering system is connectable/connected to a reducing agent tank from which reducing agent is taken and conveyed by means of a metering pump and is introduced, through at least one nozzle, into the flow of exhaust gas from the combustion engine, wherein a variable volume is integrated in the conveyor line on the pressure side of the metering pump, said variable volume being delimited by at least one positionally variable element, the positionally variable element being deflected out of its resting position, during operation of the metering pump, counter to a restoring force, into an operating position in which the variable volume is minimised, and the maximum variable volume, which is achieved when the positionally variable element is in its resting position, being greater than the volume of the conveyor line (14, 17), including the nozzle, which is arranged downstream of the variable volume, characterised in that there is a supply of compressed air and the reducing agent is nebulised outside the nozzle by means of compressed air, the nozzle being embodied as an externally mixing dual-substance nozzle, in which the reducing agent solution is dispensed from a first nozzle opening and compressed air is dispensed from a second nozzle opening, the two nozzle openings being aligned with each other such that the compressed air nebulises the reducing agent outside the nozzle, the positionally variable element being formed by two kinetically coupled diaphragms (9, 10, 51, 52), the first diaphragm (9, 51) which delimits the variable volume being connected with the conveyor line to the nozzle via the variable volume.
A patient support configured to be used as a bed, the patient support comprising: a plurality of bladders (105, 106) positioned to support a lower leg of a patient, each of the bladders (105, 106) including an interior region; and a valve assembly (112, 114, 300) in fluid communication with the interior region of at least one of the plurality of bladders (105, 106), the valve assembly (112, 114, 300) having a plurality of positions to control at least two distinct bleed rates of pressurized fluid from the interior region of the at least one bladder (105, 106), the valve assembly (112, 114, 300) further comprising a plurality of apertures (198, 200, 202) having different sizes in communication with the at least one of the plurality of bladders (105, 106) to variably control the at least two distinct bleed rates. a plurality of bladders (105, 106) positioned to support a lower leg of a patient, each of the bladders (105, 106) including an interior region; and a valve assembly (112, 114, 300) in fluid communication with the interior region of at least one of the plurality of bladders (105, 106), the valve assembly (112, 114, 300) having a plurality of positions to control at least two distinct bleed rates of pressurized fluid from the interior region of the at least one bladder (105, 106), the valve assembly (112, 114, 300) further comprising a plurality of apertures (198, 200, 202) having different sizes in communication with the at least one of the plurality of bladders (105, 106) to variably control the at least two distinct bleed rates.
A fabric conditioner composition comprising an amino-functional, epoxide group containing silicone polymer having a weight average molecular weight of 400,000 to 900,000 and a branched amine functional silicone.
A wireless device for receiving wireless signals based on channel conditions, comprising: a direct sampling path used for operations in a direct sampling mode; a zero intermediate frequency path for operations in a normal sampling mode; a first switch coupling a filter module input to an input of the direct sampling path and an input of the zero intermediate frequency path; and a second switch coupling a filter module output to an output of the direct sampling path and an output of the zero intermediate frequency path, wherein the first switch and the second switch are configured to switch between the direct sampling path and the zero intermediate frequency path based on a received signal power. a direct sampling path used for operations in a direct sampling mode; a zero intermediate frequency path for operations in a normal sampling mode; a first switch coupling a filter module input to an input of the direct sampling path and an input of the zero intermediate frequency path; and a second switch coupling a filter module output to an output of the direct sampling path and an output of the zero intermediate frequency path, wherein the first switch and the second switch are configured to switch between the direct sampling path and the zero intermediate frequency path based on a received signal power.
Stationary clamping unit (10, 50) comprising a main body that has an upper side and a clamping receptacle provided on or in the upper side for receiving a clamping element and has bearing portions for supporting the clamping element, comprising at least two locking elements that can be moved within the main body perpendicularly to a clamping axis for pulling the clamping element into a retraction direction and for locking the clamping element on the bearing portions, characterized in that a strain gauge for measuring a deformation of the main body resulting from the locking of the clamping element on the main body is provided on the main body at least in or on the upper side of the main body in the axial direction above each locking element, and in that an electronic unit for amplifying and/or evaluating the measurement signals of the strain gauges is provided in or on the main body.