mhurhangee/patent-ind-claim-en huggingface dataset:
Kit for photovoltaic feeding of a semi-trailer compactor vehicle , wherein said kit includes at least one photovoltaic solar panel and a supporting frame for said at least one photovoltaic panel , characterised in that the kit includes a vibration-damping bracketing system for attaching the frame to the roof of the vehicle , comprising: - at least one proximal bracket and at least one distal bracket with respect to the longitudinal centre line of the vehicle ; - at least one nut-bolt-washer arrangement associated with the proximal bracket and with the frame of the solar panel for connecting said frame to the roof of the vehicle , said nut-bolt-washer arrangement comprising a washer made of an elastic material, which is capable of absorbing vibrations and imparts vibration-damping properties to the proximal bracket ; - at least one L-shaped counter-bracket and at least one flexible vertical spacer for connecting said frame to the roof of the vehicle , wherein said flexible vertical spacer has a first end and a second end , wherein the first end is fixedly attached to the counter-bracket and to the frame of the solar panel , and the second end is fixedly attached to the distal vibration-damping bracket , said vertical spacer imparting vibration-damping properties to the distal bracket . - at least one proximal bracket and at least one distal bracket with respect to the longitudinal centre line of the vehicle ; - at least one nut-bolt-washer arrangement associated with the proximal bracket and with the frame of the solar panel for connecting said frame to the roof of the vehicle , said nut-bolt-washer arrangement comprising a washer made of an elastic material, which is capable of absorbing vibrations and imparts vibration-damping properties to the proximal bracket ; - at least one L-shaped counter-bracket and at least one flexible vertical spacer for connecting said frame to the roof of the vehicle , wherein said flexible vertical spacer has a first end and a second end , wherein the first end is fixedly attached to the counter-bracket and to the frame of the solar panel , and the second end is fixedly attached to the distal vibration-damping bracket , said vertical spacer imparting vibration-damping properties to the distal bracket .
A driver state determination apparatus that determines an abnormal state of a driver that drives a vehicle , the driver state determination apparatus comprising: a vibration apparatus that gives vibration to a steering wheel of a steering apparatus of the vehicle ; a vibration detector that detects the vibration of the steering wheel ; and a controller that controls the vibration apparatus , wherein the controller is configured to give vibration at a predetermined excitation frequency to the steering wheel by the vibration apparatus , and calculate, based on the vibration detected by the vibration detector , a value indicating a strength of the detected vibration at the excitation frequency, characterized by comprising a steering angle sensor that detects a steering angle of the steering wheel ; and the controller being further configured to determine that the driver is in an abnormal state when a correlation coefficient between a time variation of the value indicating the strength of the vibration while the vibration is being given and a time variation of the steering angle while the vibration is being given is equal to or more than a predetermined value. a vibration apparatus that gives vibration to a steering wheel of a steering apparatus of the vehicle ; a vibration detector that detects the vibration of the steering wheel ; and a controller that controls the vibration apparatus , wherein the controller is configured to give vibration at a predetermined excitation frequency to the steering wheel by the vibration apparatus , and calculate, based on the vibration detected by the vibration detector , a value indicating a strength of the detected vibration at the excitation frequency, characterized by comprising a steering angle sensor that detects a steering angle of the steering wheel ; and the controller being further configured to determine that the driver is in an abnormal state when a correlation coefficient between a time variation of the value indicating the strength of the vibration while the vibration is being given and a time variation of the steering angle while the vibration is being given is equal to or more than a predetermined value.
A log splitter with a mechanism for automatic lubrication of guides , wherein the log splitter includes an electro-hydraulic drive, a pushing head , a hydraulic cylinder , guides , a blade , a feeder , a stowage table and a control board , characterized in that, switching lubrication on or off depends on the position of a piston of the hydraulic cylinder with an inclined plate and a lever with a wheel which switches an oil valve from the closed state to the open state.
An assembly for a hinged connection of a wing profile to a frame profile comprising the wing profile , the frame profile and a hinge for a hinged connection of the wing profile with the frame profile around a hinge axis (S), wherein the hinge comprises a hinge tab with a hinge part and with a mounting part attachable on one of the wing profile and the frame profile comprising a first contact surface and at least two brads protruding from the first contact surface and a second contact surface oriented substantially vertically to the first contact surface , and the mounting part can be attached to the second contact surface by means of at least one first fastening screw on the one of the wing profile and the frame profile , wherein for additional securing of the mounting part on the one of the wing profiles and the frame profile , a separately formed safety element is provided, and the brads can each be connected to the one safety element by means of a screw connection, wherein, in a mounted state , the brads entirely pass through at least a part of the one of the wing profile and the frame profile and comprise a flatly formed front surface against which the safety element abuts with a first safety element-contact surface . the wing profile , the frame profile and a hinge for a hinged connection of the wing profile with the frame profile around a hinge axis (S), wherein the hinge comprises a hinge tab with a hinge part and with a mounting part attachable on one of the wing profile and the frame profile comprising a first contact surface and at least two brads protruding from the first contact surface and a second contact surface oriented substantially vertically to the first contact surface , and the mounting part can be attached to the second contact surface by means of at least one first fastening screw on the one of the wing profile and the frame profile , wherein for additional securing of the mounting part on the one of the wing profiles and the frame profile , a separately formed safety element is provided, and the brads can each be connected to the one safety element by means of a screw connection, wherein, in a mounted state , the brads entirely pass through at least a part of the one of the wing profile and the frame profile and comprise a flatly formed front surface against which the safety element abuts with a first safety element-contact surface .
A method for collecting a nucleic acid(s) from a biological sample, comprising the following steps: step a) of mixing an aluminum oxide support, wherein the support is produced by adsorbing a water-soluble neutral polymer onto the surface of aluminum oxide, and a solution containing a nucleic acid(s), thereby adsorbing the nucleic acid(s) to the support, step b) of separating the support on which the nucleic acid(s) is/are adsorbed from the solution mixed in the step a), and step c) of collecting the nucleic acid(s) by adding an eluent to the support on which the nucleic acid(s) is/are adsorbed and which is separated in the step b). step a) of mixing an aluminum oxide support, wherein the support is produced by adsorbing a water-soluble neutral polymer onto the surface of aluminum oxide, and a solution containing a nucleic acid(s), thereby adsorbing the nucleic acid(s) to the support, step b) of separating the support on which the nucleic acid(s) is/are adsorbed from the solution mixed in the step a), and step c) of collecting the nucleic acid(s) by adding an eluent to the support on which the nucleic acid(s) is/are adsorbed and which is separated in the step b).
A method comprising: at a processor and memory: receiving data based on patient information and geometric characterization of one or more organs at risk proximate to a target volume of a patient; generating, based on the data and a predictive model obtained from a plurality of prior clinical cases of other patients, a set of radiation treatment planning parameters and trade-off options for the patient in a treatment model; and presenting the radiation treatment planning parameters and trade-off options via a user interface. receiving data based on patient information and geometric characterization of one or more organs at risk proximate to a target volume of a patient; generating, based on the data and a predictive model obtained from a plurality of prior clinical cases of other patients, a set of radiation treatment planning parameters and trade-off options for the patient in a treatment model; and presenting the radiation treatment planning parameters and trade-off options via a user interface.
A data processing method carried out by a base station, comprising: - obtaining a second number of physical resource blocks according to a first number of physical resource blocks, wherein the second number of physical resource blocks is smaller than the first number of physical resource blocks, the first number of physical resource blocks is exactly divisible by the second number of physical resource blocks, and the first number of physical resource blocks corresponds to a number of physical resource blocks available for a user equipment determined by the base station; and - sending indication information to the user equipment, wherein an encoded bit repetition multiple is equal to the first number of physical resource blocks divided by the second number of physical resource blocks, and - receiving data sent by the user equipment, wherein the data is transmitted by the user equipment according to the encoded bit repetition multiple by duplicating an encoded bit for a number of times that is equal to the encoded bit repetition multiple and performing sending, wherein the indication information is used to indicate the second number of physical resource blocks or the encoded bit repetition number. - obtaining a second number of physical resource blocks according to a first number of physical resource blocks, wherein the second number of physical resource blocks is smaller than the first number of physical resource blocks, the first number of physical resource blocks is exactly divisible by the second number of physical resource blocks, and the first number of physical resource blocks corresponds to a number of physical resource blocks available for a user equipment determined by the base station; and wherein the second number of physical resource blocks is smaller than the first number of physical resource blocks, the first number of physical resource blocks is exactly divisible by the second number of physical resource blocks, and the first number of physical resource blocks corresponds to a number of physical resource blocks available for a user equipment determined by the base station; and - sending indication information to the user equipment, wherein an encoded bit repetition multiple is equal to the first number of physical resource blocks divided by the second number of physical resource blocks, and - receiving data sent by the user equipment, wherein the data is transmitted by the user equipment according to the encoded bit repetition multiple by duplicating an encoded bit for a number of times that is equal to the encoded bit repetition multiple and performing sending,
A method for an apparatus comprising an xDSL transceiver , the method comprising; receiving a packet using deinterleaving and RS decoding, wherein the packet comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the packet in a memory of the apparatus, such as in a retransmission buffer , for the storing of packets for retransmission functions; and transmitting a message over a path with no delay due to interleaving, wherein the message includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein the transmitted message is transmitted on subcarriers which operate with an SNR margin that is higher than 6 dB. receiving a packet using deinterleaving and RS decoding, wherein the packet comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the packet in a memory of the apparatus, such as in a retransmission buffer , for the storing of packets for retransmission functions; and transmitting a message over a path with no delay due to interleaving, wherein the message includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein the transmitted message is transmitted on subcarriers which operate with an SNR margin that is higher than 6 dB.
A method for providing electric power to an electronic device , the method comprising: receiving, from a power source and at a monitoring circuit electrically connected to the electronic device , electric power at a corresponding voltage, the electric power being received at a corresponding power input of the monitoring circuit ; receiving, at a standby power input (120 sb ) of the monitoring circuit , a first standby electric power at a first standby voltage; directing, by the monitoring circuit , the electric power to the electronic device through a corresponding fuse state indicator of the monitoring circuit , the fuse state indicator selectively connecting a corresponding power input to the electronic device and relying on the first standby electric power to operate, the fuse state indicator being configured to generate a fuse state signal indicative of a state thereof that can be selectively an alive state or a failure state; combining, by a logic combiner of the monitoring circuit , the fuse state signal with a signal indicative of a presence of the electric power at the power input of the monitoring circuit to form a main state signal that can be selectively an alive state or a failure state; and in response to the main state signal being in a failure state: disconnecting the electronic device from the power source . receiving, from a power source and at a monitoring circuit electrically connected to the electronic device , electric power at a corresponding voltage, the electric power being received at a corresponding power input of the monitoring circuit ; receiving, at a standby power input (120 sb ) of the monitoring circuit , a first standby electric power at a first standby voltage; directing, by the monitoring circuit , the electric power to the electronic device through a corresponding fuse state indicator of the monitoring circuit , the fuse state indicator selectively connecting a corresponding power input to the electronic device and relying on the first standby electric power to operate, the fuse state indicator being configured to generate a fuse state signal indicative of a state thereof that can be selectively an alive state or a failure state; combining, by a logic combiner of the monitoring circuit , the fuse state signal with a signal indicative of a presence of the electric power at the power input of the monitoring circuit to form a main state signal that can be selectively an alive state or a failure state; and in response to the main state signal being in a failure state: disconnecting the electronic device from the power source .
A spinal implant comprising: first and second pedicle screws , each of which comprises a threaded shank coupled to a head ; and first and second cantilevered arms coupled to said first and second pedicle screws , respectively, wherein said first cantilevered arm comprises a contact member arranged to contact and move over a contact portion of said second cantilevered arm , wherein said contact member comprises a round roller element which rolls about pivots in said first cantilevered arm . first and second pedicle screws , each of which comprises a threaded shank coupled to a head ; and first and second cantilevered arms coupled to said first and second pedicle screws , respectively, wherein said first cantilevered arm comprises a contact member arranged to contact and move over a contact portion of said second cantilevered arm , wherein said contact member comprises a round roller element which rolls about pivots in said first cantilevered arm .
A method, comprising: providing a fuel-fired burner comprising a burner housing having a fuel inlet coupled to a fuel pipe coupled to a burner nozzle secured to a burner mounting plate that has at least one recycle port , a combustion air inlet for receiving combustion air coupled to a combustion air nozzle positioned beginning at an input to a second chamber within the burner housing , the combustion air nozzle having an output spaced apart from a third chamber also within the second chamber , wherein the combustion air nozzle is configured to direct the combustion air into the third chamber , and a jet pump, comprising the combustion air nozzle , second chamber and third chamber , is located entirely inside the burner housing ; directing the combustion air using a combustion air fan from the combustion air inlet through the combustion air nozzle ; directing fuel through the fuel pipe to the burner nozzle to implement a combustion process that generates a flame originating at the burner nozzle which generates a hot exhaust gas, and operating the jet pump by flowing the combustion air through the combustion air nozzle with a sufficient velocity for creating an impulse that suctions in the hot exhaust gas through the recycle port into the second chamber then into a gas mixing zone extending from an output of the combustion air nozzle to an input end of the third chamber which mixes the hot exhaust gas suctioned in with the combustion air received from the combustion air nozzle . providing a fuel-fired burner comprising a burner housing having a fuel inlet coupled to a fuel pipe coupled to a burner nozzle secured to a burner mounting plate that has at least one recycle port , a combustion air inlet for receiving combustion air coupled to a combustion air nozzle positioned beginning at an input to a second chamber within the burner housing , the combustion air nozzle having an output spaced apart from a third chamber also within the second chamber , wherein the combustion air nozzle is configured to direct the combustion air into the third chamber , and a jet pump, comprising the combustion air nozzle , second chamber and third chamber , is located entirely inside the burner housing ; directing the combustion air using a combustion air fan from the combustion air inlet through the combustion air nozzle ; directing fuel through the fuel pipe to the burner nozzle to implement a combustion process that generates a flame originating at the burner nozzle which generates a hot exhaust gas, and operating the jet pump by flowing the combustion air through the combustion air nozzle with a sufficient velocity for creating an impulse that suctions in the hot exhaust gas through the recycle port into the second chamber then into a gas mixing zone extending from an output of the combustion air nozzle to an input end of the third chamber which mixes the hot exhaust gas suctioned in with the combustion air received from the combustion air nozzle .
An engine, comprising: a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising a Venturi tube configuration; a differential pressure sensor operatively coupled to the Venturi tube configuration; and a controller operatively coupled to the differential pressure sensor, the controller comprising an exhaust gas recirculation flow rate circuit structured to receive differential pressure measurement values from the differential pressure sensor, interpret the differential pressure measurement values, and determine a flow rate of exhaust gas through the exhaust gas recirculation crossover tube directly from the interpreted pressure measurement values received from the differential pressure sensor. a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising a Venturi tube configuration; a differential pressure sensor operatively coupled to the Venturi tube configuration; and a controller operatively coupled to the differential pressure sensor, the controller comprising an exhaust gas recirculation flow rate circuit structured to receive differential pressure measurement values from the differential pressure sensor, interpret the differential pressure measurement values, and determine a flow rate of exhaust gas through the exhaust gas recirculation crossover tube directly from the interpreted pressure measurement values received from the differential pressure sensor.
Method of installing rotor blades on an offshore wind turbine , the method comprising the steps of: - arranging a tower of the wind turbine at an offshore installation site, the tower having a nacelle and a hub mounted thereon, - fastening a first end of a tensioner to at least one of the tower , wherein the first end of the tensioner is fastened to the tower at an upper region of the tower adjacent to the nacelle , the nacelle , and the hub at a distance above sea level, - fastening a second end of the tensioner to a holding device floating in the sea at a distance from the tower , and - applying a pulling force (F) to the tensioner from the holding device at least part of the time while the rotor blades are being mounted to the hub , so that oscillations (M) of the tower due to external forces are dampened during installation of the rotor blades . - arranging a tower of the wind turbine at an offshore installation site, the tower having a nacelle and a hub mounted thereon, - fastening a first end of a tensioner to at least one of the tower , wherein the first end of the tensioner is fastened to the tower at an upper region of the tower adjacent to the nacelle , the nacelle , and the hub at a distance above sea level, - fastening a second end of the tensioner to a holding device floating in the sea at a distance from the tower , and - applying a pulling force (F) to the tensioner from the holding device at least part of the time while the rotor blades are being mounted to the hub , so that oscillations (M) of the tower due to external forces are dampened during installation of the rotor blades .
A heated garment comprising a base layer ; at least one armour plate arranged on the base layer , at least a portion of the armour plate being a shear thickening fluid; whereby the heated garment further comprises at least one heating element in thermal contact with the armour plate configured to heat the armour plate to keep it pliable.