mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural vehicle-trailer combination comprising a traction module which is configured as an appliance carrier with a drive element engaging in the ground and a working appliance which is attached to the traction module by means of a coupling apparatus , with a folding axle supporting the working appliance relative to the ground at least during transport mode, wherein the coupling apparatus has a slewing mechanism for providing a degree of freedom of rotation between the traction module and the working appliance along a longitudinal axis of the working appliance and a pivot joint for providing a degree of freedom of pivoting between the traction module and the working appliance along a vertical axis of the traction module , wherein the pivot joint is adjustable relative to its pivot angle (δ) by means of a steering actuator for influencing the direction of travel of the vehicle-trailer combination .
A locking linear actuator , comprising: an actuator housing defining an internal longitudinal bore ; an actuator piston disposed in the internal longitudinal bore , the actuator piston being configured to slidably move between a proximal retracted position and a distal extended position; and a lock sleeve disposed in the internal longitudinal bore , the lock sleeve being configured to slidably move between a distal locking position and a proximal unlocked position; and an actuator piston biasing mechanism configured to urge the actuator piston in a proximal direction in the internal longitudinal bore , toward the retracted position; wherein when the actuator piston is in the retracted position and the lock sleeve is in the locking position, a distal portion of the lock sleeve extends into a proximal portion of the actuator piston to prevent the actuator piston from leaving the retracted position. an actuator housing defining an internal longitudinal bore ; an actuator piston disposed in the internal longitudinal bore , the actuator piston being configured to slidably move between a proximal retracted position and a distal extended position; and a lock sleeve disposed in the internal longitudinal bore , the lock sleeve being configured to slidably move between a distal locking position and a proximal unlocked position; and an actuator piston biasing mechanism configured to urge the actuator piston in a proximal direction in the internal longitudinal bore , toward the retracted position; wherein when the actuator piston is in the retracted position and the lock sleeve is in the locking position, a distal portion of the lock sleeve extends into a proximal portion of the actuator piston to prevent the actuator piston from leaving the retracted position.
A computer-implemented method for post-manufacture generation of a device certificate for verifying an electronic device according to a public key infrastructure, comprising: obtaining, at a certificate generating apparatus, the certificate generating apparatus being separate from the electronic device, either during or after the manufacture of the electronic device, a first key associated with the electronic device; applying, by the certificate generating apparatus after the manufacture of the electronic device, a key generating function to the first key to obtain a second key for the electronic device; generating , by the certificate generating apparatus, the device certificate for the public key infrastructure after the manufacture of the electronic device, wherein the second key is a public key associated with the device certificate; and wherein the device certificate is generated without transmission of the public key or a corresponding private key between the electronic device and the certificate generating apparatus. obtaining, at a certificate generating apparatus, the certificate generating apparatus being separate from the electronic device, either during or after the manufacture of the electronic device, a first key associated with the electronic device; applying, by the certificate generating apparatus after the manufacture of the electronic device, a key generating function to the first key to obtain a second key for the electronic device; generating , by the certificate generating apparatus, the device certificate for the public key infrastructure after the manufacture of the electronic device, wherein the second key is a public key associated with the device certificate; and wherein the device certificate is generated without transmission of the public key or a corresponding private key between the electronic device and the certificate generating apparatus.
A system for providing artificial lift to wellbore fluids having solid buildup removal capabilities, the system comprising: a pump submerged in the wellbore fluids and in fluid communication with a tubular member extending within a wellbore , the pump oriented to selectively boost a pressure of the wellbore fluids traveling from the wellbore towards an earth's surface ; a motor located within the wellbore providing power to the pump; a seal assembly having a first side connected to the motor and a second side connected to the pump, wherein the pump, the motor and the seal assembly together form a submersible pump string ; and an ultrasonic device connected to the submersible pump string and operable to produce pressure waves within the system, selectively bombarding the submersible pump string with ultrasonic cavitation for removing and preventing the buildup of scale on the solid surfaces at the solid and liquid interface of elements of the submersible pump string. a pump submerged in the wellbore fluids and in fluid communication with a tubular member extending within a wellbore , the pump oriented to selectively boost a pressure of the wellbore fluids traveling from the wellbore towards an earth's surface ; a motor located within the wellbore providing power to the pump; a seal assembly having a first side connected to the motor and a second side connected to the pump, wherein the pump, the motor and the seal assembly together form a submersible pump string ; and an ultrasonic device connected to the submersible pump string and operable to produce pressure waves within the system, selectively bombarding the submersible pump string with ultrasonic cavitation for removing and preventing the buildup of scale on the solid surfaces at the solid and liquid interface of elements of the submersible pump string.
A single-screw compressor, comprising: a screw rotor provided with a helical groove ; a cylindrical wall which houses the screw rotor such that the screw rotor is rotatable; and a gear-shaped gate rotor having a plurality of flat gates and arranged outside the cylindrical wall , some of the gates entering a space inside the cylindrical wall via an opening formed in the cylindrical wall and meshing with the screw rotor so that the gate rotor rotates together with the screw rotor , and a fluid being compressed in a compression chamber defined in the helical groove by the screw rotor , the gates meshing with the screw rotor , and the cylindrical wall , characterised in that the single-screw compressor includes a gap adjuster mechanism which, to avoid contact between a front surface of the gate rotor toward the compression chamber and a sealing surface of the cylindrical wall facing the front surface when the front surface of the gate rotor approaches the sealing surface of the cylindrical wall due to thermal expansion of the gate rotor , displaces at least one of the gate rotor and the sealing surface of the cylindrical wall in an axial direction of the gate rotor . a screw rotor provided with a helical groove ; a cylindrical wall which houses the screw rotor such that the screw rotor is rotatable; and a gear-shaped gate rotor having a plurality of flat gates and arranged outside the cylindrical wall , some of the gates entering a space inside the cylindrical wall via an opening formed in the cylindrical wall and meshing with the screw rotor so that the gate rotor rotates together with the screw rotor , and a fluid being compressed in a compression chamber defined in the helical groove by the screw rotor , the gates meshing with the screw rotor , and the cylindrical wall , characterised in that the single-screw compressor includes a gap adjuster mechanism which, to avoid contact between a front surface of the gate rotor toward the compression chamber and a sealing surface of the cylindrical wall facing the front surface when the front surface of the gate rotor approaches the sealing surface of the cylindrical wall due to thermal expansion of the gate rotor , displaces at least one of the gate rotor and the sealing surface of the cylindrical wall in an axial direction of the gate rotor .
A control apparatus configured to control a thermal recycling plant which includes a plurality of cooling apparatus which are configured to cool a coolant that recovers heat from a plurality of load apparatus and which consume energy while operating, the control apparatus comprising: a calculator configured to calculate an optimal temperature that is optimal for the coolant by optimization calculation for minimizing energy consumption under given conditions; a monitor and controller configured to monitor an operating state of the load apparatus to determine whether an abnormality exists in the load apparatus ; and the monitor and controller configured to, upon determining that the abnormality exists in any of the load apparatus , cool the coolant to a temperature lower than the calculated optimal temperature in order to minimize the number of cooling apparatus in operation. a calculator configured to calculate an optimal temperature that is optimal for the coolant by optimization calculation for minimizing energy consumption under given conditions; a monitor and controller configured to monitor an operating state of the load apparatus to determine whether an abnormality exists in the load apparatus ; and the monitor and controller configured to, upon determining that the abnormality exists in any of the load apparatus , cool the coolant to a temperature lower than the calculated optimal temperature in order to minimize the number of cooling apparatus in operation.
A method, comprising: identifying , with an audio analyzer , one or more audio features and speech patterns of a user's speech ; determining a cognitive burden associated with the user's speech ; and determining , with a pulmonary condition determiner , a pulmonary condition of the user based on predetermined correlations between the one or more audio features and speech patterns of the user's speech , the cognitive burden, and a respiratory airway condition. identifying , with an audio analyzer , one or more audio features and speech patterns of a user's speech ; determining a cognitive burden associated with the user's speech ; and
Method of fabricating a multi-aperture system for foveated imaging, comprising the steps of: - providing an image sensor ; and - forming, by means of a 3D-printing technique, at least two objectives directly on the image sensor such that the objectives have a common focal plane located on the image sensor and each objective has a different focal length and field of view. - providing an image sensor ; and - forming, by means of a 3D-printing technique, at least two objectives directly on the image sensor such that the objectives have a common focal plane located on the image sensor and each objective has a different focal length and field of view.
Reinforcing strut for a motor vehicle, comprising an elongate multi-chamber profile having a main hollow chamber extending along a main longitudinal axis , and having a flat flange arranged alongside said chamber, wherein the flat flange has a first longitudinal portion with a first longitudinal axis and a second longitudinal portion with a second longitudinal axis , wherein an angle ( ) between the main longitudinal axis and the first longitudinal axis is between 20° and 60° and an angle ( ) between the main longitudinal axis and the second longitudinal axis is between 20° an 60°, characterized in that the main hollow chamber has a wall on the upper side (O) and a wall on the underside (U), wherein the wall on the underside (U) merges into an outer wall in the direction of the flat flange , and the wall and the outer wall together merge into the flat flange .
A wireless communication network comprising a plurality of radio transmitting devices and at least one receiving gateway, the transmitting devices, being arranged to process signals into a spread spectrum radio signal by switching the frequency of a carrier among several hopping frequencies in a frequency band, according to a sequence, and transmitting the radio signal through a radio interface, the receiving gateway being arranged for receiving radio signals from said radio transmitting devices, for predicting whether detected radio signals will collide in frequency in a collision time interval, and for blanking or weighting the signals in the collision time interval, wherein the receiving gateway is configured to maintain an interference map forecasting received signal level as a function of time and frequency, to detect a radio signal, to measure its signal level, to determine its hopping sequence, and to fill the bins of the interference map corresponding to the expected times and frequencies of future packets with the signal level. the transmitting devices, being arranged to process signals into a spread spectrum radio signal by switching the frequency of a carrier among several hopping frequencies in a frequency band, according to a sequence, and transmitting the radio signal through a radio interface, the receiving gateway being arranged for receiving radio signals from said radio transmitting devices, for predicting whether detected radio signals will collide in frequency in a collision time interval, and for blanking or weighting the signals in the collision time interval, wherein the receiving gateway is configured to maintain an interference map forecasting received signal level as a function of time and frequency, to detect a radio signal, to measure its signal level, to determine its hopping sequence, and to fill the bins of the interference map corresponding to the expected times and frequencies of future packets with the signal level.
Device for determining its location within a predetermined space using a location determination system , the location determination system comprising at least two speakers and the device , wherein each speaker is configured to produce a unique predetermined, possibly ultrasonic, sound in said space ,wherein the device comprises:- at least two microphones (5-1, 5-2, 5-3, 5-4) with a mutual interspacing, each configured to receive sound and each comprising an output for providing a signal corresponding to the sound received;- a memory configured to store for each speaker a fingerprint corresponding to the unique predetermined sound and information relating to a location of that speaker ; and- a processor connected to the outputs , characterized in that the processor is configured to:- determine, for each sound, based on a comparison of signals received from the outputs with fingerprints retrieved from the memory , a difference between arrival times of the sound at each microphone (5-1, 5-2, 5-3, 5-4) for each pair of said at least two microphones (5-1, 5-2, 5-3, 5-4), and-determine, based on the differences in arrival time, an orientation of the device with respect to each one of the speakers , and to perform multiangulation based on the information relating to the speaker locations to determine the location of the device in the space .
A method performed by an unmanned vehicle for wireless network testing, the unmanned vehicle configured to transport a user equipment, UE , the UE being configured to communicate over a wireless network, the method comprising: controlling (S100) a movement of the unmanned vehicle carrying the UE according to a testing location algorithm to identify a testing location for testing communication of the UE , the testing location algorithm comprising moving the unmanned vehicle carrying the UE to at least one candidate testing location, determining at least one measurement value at the at least one candidate testing location and determining a reference location based at least in part on the determined at least one measurement value, and based on a predetermined condition, accepting the reference location as the testing location of the UE . controlling (S100) a movement of the unmanned vehicle carrying the UE according to a testing location algorithm to identify a testing location for testing communication of the UE , the testing location algorithm comprising moving the unmanned vehicle carrying the UE to at least one candidate testing location, determining at least one measurement value at the at least one candidate testing location and determining a reference location based at least in part on the determined at least one measurement value, and based on a predetermined condition, accepting the reference location as the testing location of the UE .
A bone fixation device comprising: a first member comprising a proximal end of the device; a second member comprising a distal end of the device; and at least one elastic element positioned between the first member and the second member, characterized by a member coupling the first member to the second member and providing a base for engagement with the elastic element during compression and expansion of the elastic element, wherein the first member and the second member are moveable relative to each other to lengthen the device, and wherein lengthening of the device compresses the elastic element. a first member comprising a proximal end of the device; a second member comprising a distal end of the device; and at least one elastic element positioned between the first member and the second member, characterized by a member coupling the first member to the second member and providing a base for engagement with the elastic element during compression and expansion of the elastic element, wherein the first member and the second member are moveable relative to each other to lengthen the device, and wherein lengthening of the device compresses the elastic element.
A method, comprising: receiving (S410), by a mobile terminal, a measurement configuration message from a serving base station indicating a predetermined number, a measurement event being defined based on the predetermined number of signal beams from the serving base station and the predetermined number of signal beams from a neighboring base station; measuring (S420) signal beams from the serving base station and the neighboring base station; identifying (S430), among the measured signal beams, a first number of best signal beams from the serving base station, the first number being equal to or less than the predetermined number; identifying (S440), among the measured signal beams, a second number of best signal beams from the neighboring base station, the second number being equal to or less than the predetermined number; determining (S450) whether the measurement event occurs based on the first number of best signal beams from the serving base station and the second number of best signal beams from the neighboring base station; and sending (S460) a measurement report to the serving base station in response to a determination that the measurement event occurs. receiving (S410), by a mobile terminal, a measurement configuration message from a serving base station indicating a predetermined number, a measurement event being defined based on the predetermined number of signal beams from the serving base station and the predetermined number of signal beams from a neighboring base station; measuring (S420) signal beams from the serving base station and the neighboring base station; identifying (S430), among the measured signal beams, a first number of best signal beams from the serving base station, the first number being equal to or less than the predetermined number; identifying (S440), among the measured signal beams, a second number of best signal beams from the neighboring base station, the second number being equal to or less than the predetermined number; determining (S450) whether the measurement event occurs based on the first number of best signal beams from the serving base station and the second number of best signal beams from the neighboring base station; and sending (S460) a measurement report to the serving base station in response to a determination that the measurement event occurs.
A composition for preparing R-glass fibers comprising: SiO 2 in an amount from 60.0 to 61.6% by weight of the total composition; Al 2 O 3 in an amount from 15.6 to 17.2% by weight of the total composition; CaO in an amount from 11.7 to 13.2% by weight of the total composition; MgO in an amount from 9.4 to 10.9% by weight of the total composition; Na 2 O + K 2 O in an amount from 0.0 to < 2.0% by weight of the total composition; B 2 O 3 in amount from 0.0 to 0.5% by weight of the total composition; Fe 2 O 3 in an amount from 0.0 to about 1.0% by weight of the total composition; SrO in an amount from 0.0 to about 1.0% by weight of the total composition; ZnO in an amount from 0.0 to about 1.0% by weight of the total composition; TiO 2 in an amount from 0.0 to 2.0% by weight of the total composition; and Fluorine in an amount from 0.0 to about 1.0% by weight of the total composition; wherein said composition has a ΔT of at least 60°C and a log 3 temperature from 1285°C to 1320°C, wherein the log3 temperature is the temperature at which the molten glass composition has a viscosity of 1,000 poise, where the viscosity is determined by measuring the torque needed to rotate a cylinder immersed in the molten glass material according to ASTM C965; and wherein said composition is free of lithium. SiO 2 in an amount from 60.0 to 61.6% by weight of the total composition; Al 2 O 3 in an amount from 15.6 to 17.2% by weight of the total composition; CaO in an amount from 11.7 to 13.2% by weight of the total composition; MgO in an amount from 9.4 to 10.9% by weight of the total composition; Na 2 O + K 2 O in an amount from 0.0 to < 2.0% by weight of the total composition; B 2 O 3 in amount from 0.0 to 0.5% by weight of the total composition; Fe 2 O 3 in an amount from 0.0 to about 1.0% by weight of the total composition; SrO in an amount from 0.0 to about 1.0% by weight of the total composition; ZnO in an amount from 0.0 to about 1.0% by weight of the total composition; TiO 2 in an amount from 0.0 to 2.0% by weight of the total composition; and Fluorine in an amount from 0.0 to about 1.0% by weight of the total composition; wherein said composition has a ΔT of at least 60°C and a log 3 temperature from 1285°C to 1320°C, wherein the log3 temperature is the temperature at which the molten glass composition has a viscosity of 1,000 poise, where the viscosity is determined by measuring the torque needed to rotate a cylinder immersed in the molten glass material according to ASTM C965; and wherein said composition is free of lithium.