mhurhangee/patent-ind-claim-en huggingface dataset:
Method for validating an up-to-dateness of at least one digital map, in particular by means of a control unit , wherein - the at least one digital map is received or retrieved , - measurement data about vehicle surroundings (U) from a vehicle sensor system are received , - landmarks are extracted from the measurement data and detected within the at least one digital map, - a vehicle position within the at least one digital map is determined on the basis of the detected landmarks within the vehicle surroundings (U), - data of a driving assistance function are received , wherein the data of the driver assistance function are results of the driver assistance function , wherein a lane keeping assistant is used as the driver assistance function , - in order to validate the up-to-dateness of the at least one digital map, a comparison between the determined vehicle position within the at least one digital map and the results of the driving assistance function is carried out , characterized in that a positive validation of the up-to-dateness of the map is determined if both the vehicle position in the digital map configured as a localization map and the results of the driver assistance functions determine a navigable position in a corresponding manner. - the at least one digital map is received or retrieved , - measurement data about vehicle surroundings (U) from a vehicle sensor system are received , - landmarks are extracted from the measurement data and detected within the at least one digital map, - a vehicle position within the at least one digital map is determined on the basis of the detected landmarks within the vehicle surroundings (U), - data of a driving assistance function are received , wherein the data of the driver assistance function are results of the driver assistance function , wherein a lane keeping assistant is used as the driver assistance function , - in order to validate the up-to-dateness of the at least one digital map, a comparison between the determined vehicle position within the at least one digital map and the results of the driving assistance function is carried out , characterized in that a positive validation of the up-to-dateness of the map is determined if both the vehicle position in the digital map configured as a localization map and the results of the driver assistance functions determine a navigable position in a corresponding manner.
An equipment registration terminal comprising: a position determination unit configured to determine a position of the equipment registration terminal by using a positioning means; a positioning means storage unit configured to store information about the positioning means to determine the position of the equipment registration terminal , characterized in that the equipment registration terminal further comprises: a distance measurement unit configured to measure a distance from the position of the equipment registration terminal to an equipment to be registered by using a measurement means; a measurement means storage unit configured to store information about the measurement means to measure the distance; an error estimation unit configured to estimate a positioning error in the position of the equipment registration terminal based on the information about the positioning means, and estimate a measurement error in the distance based on the information about the measurement means; and an equipment registration unit configured to register, in registration of a position of equipment to be registered by using the position of the equipment registration terminal and the distance, position information of the equipment and error information of the equipment based on the positioning error and the measurement error, in an associated manner, wherein information indicating what error is included in the registered position of the equipment is provided to a user such that the user can be informed of an error in the position of the equipment. a position determination unit configured to determine a position of the equipment registration terminal by using a positioning means; a positioning means storage unit configured to store information about the positioning means to determine the position of the equipment registration terminal , characterized in that the equipment registration terminal further comprises: a distance measurement unit configured to measure a distance from the position of the equipment registration terminal to an equipment to be registered by using a measurement means; a measurement means storage unit configured to store information about the measurement means to measure the distance; an error estimation unit configured to estimate a positioning error in the position of the equipment registration terminal based on the information about the positioning means, and estimate a measurement error in the distance based on the information about the measurement means; and an equipment registration unit configured to register, in registration of a position of equipment to be registered by using the position of the equipment registration terminal and the distance, position information of the equipment and error information of the equipment based on the positioning error and the measurement error, in an associated manner, wherein information indicating what error is included in the registered position of the equipment is provided to a user such that the user can be informed of an error in the position of the equipment.
Apparatus, comprising coupling means adapted to couple respective portions of a transmission resource to fixed beams in a 1:1 relationship such that the portions coupled to different fixed beams do not overlap, wherein the transmission resource is foreseen for transmission by a cell, each of the fixed beams is defined by a fixed beam weight vector, and a number of the fixed beams is predefined and equal to or larger than 2; allocating means adapted to allocate one of the fixed beams and the portion of the transmission resource coupled to the one of the fixed beams to a terminal; configuring means adapted to configure a transmitting device to transmit to the terminal in the fixed beam and the portion of the transmission resource allocated to the terminal, wherein the coupling means is adapted to couple the portions of the transmission resource and fixed beams based on a received information about neighbor portions of the transmission resource coupled to neighbor fixed beams of a neighboring cell such that mutual interference with the neighboring cell is minimized; and the coupling means is adapted to couple a largest one of the portions to a middle beam of the fixed beams, wherein at least one of the other fixed beams is spatially located between the middle beam and a border of the cell. coupling means adapted to couple respective portions of a transmission resource to fixed beams in a 1:1 relationship such that the portions coupled to different fixed beams do not overlap, wherein the transmission resource is foreseen for transmission by a cell, each of the fixed beams is defined by a fixed beam weight vector, and a number of the fixed beams is predefined and equal to or larger than 2; allocating means adapted to allocate one of the fixed beams and the portion of the transmission resource coupled to the one of the fixed beams to a terminal; configuring means adapted to configure a transmitting device to transmit to the terminal in the fixed beam and the portion of the transmission resource allocated to the terminal, wherein the coupling means is adapted to couple the portions of the transmission resource and fixed beams based on a received information about neighbor portions of the transmission resource coupled to neighbor fixed beams of a neighboring cell such that mutual interference with the neighboring cell is minimized; and the coupling means is adapted to couple a largest one of the portions to a middle beam of the fixed beams, wherein at least one of the other fixed beams is spatially located between the middle beam and a border of the cell.
A peroxisome proliferator-activated receptor α (PPARa) ligand for use in treating a disease characterised in reduced synaptic function, wherein the PPARα ligand is selected from the group consisting of 3-hydroxy-2,2-dimethyl butyrate (HMB)and hexadecanamide (HEX).
Capsule filling machine having a machine frame on which is rotatably mounted a turntable , having a rotation axis running in the vertical direction (z), for transporting capsules to be filled to different processing stations , wherein one of the processing stations comprises a weighing installation for capsules , wherein the machine frame is provided with a machine table and with machine frame feet for placing on a floor , wherein the weighing installation has a weighing frame which is provided with dedicated weighing frame feet for placing independently on the floor ; wherein the machine table has a cutout with an encircling periphery ; wherein the weighing installation is positioned in the cutout so as to have a spacing from the periphery of said cutout on all sides; wherein the capsule filling machine furthermore comprises a sealing collar which extends along a longitudinal axis that runs at least predominantly in the vertical direction (z), and which has two ends that lie on top of one another in terms of the longitudinal axis , and which comprises a casing which encircles the longitudinal axis ; wherein the sealing collar in the region of one of its ends encloses the cutout in the machine table and is connected there in a sealing manner to the machine table in the region of the encircling periphery , and wherein the sealing collar in the region of its other end encloses the weighing frame and is connected there in a sealing manner to the weighing frame .
A system comprising: a camshaft disposed along an axis from a drive end to an opposite end , wherein the camshaft comprises: a first plurality of journals configured to support the camshaft , wherein each journal of the first plurality of journals is spaced along the axis; a first plurality of cams spaced along the axis, wherein the first plurality of cams is disposed along the camshaft in sets , wherein each set is disposed between a respective pair of journals of the first plurality of journals; and a first plurality of mass portions , wherein the first plurality of mass portions is configured to increase a natural frequency of the camshaft , characterized in that each mass portion of the first plurality of mass portions is disposed between a set of cams of the first plurality of cams and a respective journal of the first plurality of journals and the first plurality of mass portions is disposed along the camshaft such that a center of mass of the first plurality of mass portions is nearer to the drive end than to the opposite end. a first plurality of journals configured to support the camshaft , wherein each journal of the first plurality of journals is spaced along the axis; a first plurality of cams spaced along the axis, wherein the first plurality of cams is disposed along the camshaft in sets , wherein each set is disposed between a respective pair of journals of the first plurality of journals; and a first plurality of mass portions , wherein the first plurality of mass portions is configured to increase a natural frequency of the camshaft , characterized in that each mass portion of the first plurality of mass portions is disposed between a set of cams of the first plurality of cams and a respective journal of the first plurality of journals and the first plurality of mass portions is disposed along the camshaft such that a center of mass of the first plurality of mass portions is nearer to the drive end than to the opposite end.
A method for calibrating a selected sensor included in a first device, the method performed at a communications device and comprising: receiving sensor data output by one or more sensors distributed across one or more second devices , wherein at least one of the one or more sensors is different from the selected sensor, wherein the first device and the one or more second devices are loosely coupled and are connected via a short-range communications link and comprise a cellular telephone and an accessory device for the cellular telephone; determining an accuracy of the selected sensor based on a comparison of the received sensor data output by the one or more sensors and sensor data output by the selected sensor; determining a sensor calibration value for the selected sensor based on the received sensor data; and calibrating the selected sensor using the sensor calibration value, wherein determining the sensor calibration value comprises calculating the sensor calibration value based on the determined accuracy of the selected sensor. receiving sensor data output by one or more sensors distributed across one or more second devices , wherein at least one of the one or more sensors is different from the selected sensor, wherein the first device and the one or more second devices are loosely coupled and are connected via a short-range communications link and comprise a cellular telephone and an accessory device for the cellular telephone; determining an accuracy of the selected sensor based on a comparison of the received sensor data output by the one or more sensors and sensor data output by the selected sensor; determining a sensor calibration value for the selected sensor based on the received sensor data; and calibrating the selected sensor using the sensor calibration value, wherein determining the sensor calibration value comprises calculating the sensor calibration value based on the determined accuracy of the selected sensor.
A heat dissipation device , applied to a computing unit , comprising: a fan unit ; a signal receiving unit , configured to receive a satellite positioning signal and generate a signal strength according to the satellite positioning signal ; a time unit , configured to generate a real-time signal; a control unit , electrically connected to the fan unit , the signal receiving unit and the time unit ; and an audio capturing unit , electrically connected to the control unit , configured to receive an ambient audio and generate volume according to the ambient audio ; wherein, the control unit is configured to adjust the rotation speed of the fan unit according to the volume, the signal strength , and the real-time signal, wherein the volume is directly proportional to the rotation speed; wherein it is determined by means of generating the signal strength whether the heat dissipation device is indoors or outdoors, wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is less than a predetermined threshold, that the heat dissipation device is indoors, and wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is more than the predetermined threshold, that the heat dissipation device is outdoors. a fan unit ; a signal receiving unit , configured to receive a satellite positioning signal and generate a signal strength according to the satellite positioning signal ; a time unit , configured to generate a real-time signal; a control unit , electrically connected to the fan unit , the signal receiving unit and the time unit ; and an audio capturing unit , electrically connected to the control unit , configured to receive an ambient audio and generate volume according to the ambient audio ; wherein, the control unit is configured to adjust the rotation speed of the fan unit according to the volume, the signal strength , and the real-time signal, wherein the volume is directly proportional to the rotation speed; wherein it is determined by means of generating the signal strength whether the heat dissipation device is indoors or outdoors, wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is less than a predetermined threshold, that the heat dissipation device is indoors, and wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is more than the predetermined threshold, that the heat dissipation device is outdoors.
A display apparatus, comprising: a substrate (no) including a display area (DA) for displaying an image; a first thin film transistor (T1) in the display area (DA), the first thin film transistor (T1) including a first semiconductor layer (AS1) having a silicon semiconductor and a first gate electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first gate electrode (G1) and having a first contact hole (CNT1) penetrating therethrough; and a second thin film transistor (T3) on the first interlayer insulating layer and including a second semiconductor layer (AO3) including an oxide semiconductor and a second gate electrode (G3) insulated from the second semiconductor layer (AO3), wherein a portion of the second semiconductor layer (AO3) extends into the first contact hole (CNT1) and is connected to the first semiconductor layer (AS1), wherein the first semiconductor layer (AS1) includes a first channel area (A1), and a first source area (S1) and a first drain area (D1) respectively at both sides of the first channel area (A1) and doped with impurities, wherein the second semiconductor layer (AO3) includes a second channel area (A3), and a second source area (S3) and a second drain area (D3) respectively at both sides of the second channel area (A3) and made to be conductive, and wherein one of the second source area and second drain area (D3) extends into the first contact hole (CNT1) and contacts one of the first source area (S1) and the first drain area (D1). a substrate (no) including a display area (DA) for displaying an image; a first thin film transistor (T1) in the display area (DA), the first thin film transistor (T1) including a first semiconductor layer (AS1) having a silicon semiconductor and a first gate electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first gate electrode (G1) and having a first contact hole (CNT1) penetrating therethrough; and a second thin film transistor (T3) on the first interlayer insulating layer and including a second semiconductor layer (AO3) including an oxide semiconductor and a second gate electrode (G3) insulated from the second semiconductor layer (AO3), wherein a portion of the second semiconductor layer (AO3) extends into the first contact hole (CNT1) and is connected to the first semiconductor layer (AS1), wherein the first semiconductor layer (AS1) includes a first channel area (A1), and a first source area (S1) and a first drain area (D1) respectively at both sides of the first channel area (A1) and doped with impurities, wherein the second semiconductor layer (AO3) includes a second channel area (A3), and a second source area (S3) and a second drain area (D3) respectively at both sides of the second channel area (A3) and made to be conductive, and wherein one of the second source area and second drain area (D3) extends into the first contact hole (CNT1) and contacts one of the first source area (S1) and the first drain area (D1).
An electric actuator , comprising: a drive part ; a motion conversion mechanism part configured to convert a rotary motion from the drive part to a linear motion in an axial direction parallel with an output shaft of the drive part ; a driving force transmission part comprising a transmission gear mechanism configured to transmit a driving force from the drive part to the motion conversion mechanism part ; and a motion-conversion-mechanism support part comprising a double-row bearing configured to support the motion conversion mechanism part , wherein the double-row bearing is arranged on an opposite side of the drive part with respect to the transmission gear mechanism , wherein the drive part comprises a driving motor and a motor case configured to accommodate the driving motor , wherein an outer peripheral surface of the motor case on a side of the motion conversion mechanism part is arranged at a position closer to the motion conversion mechanism part than a position of an imaginary plane of an extension in the axial direction of an outer peripheral surface of the double-row bearing , characterized in that the electric actuator further comprises a boot configured to prevent a foreign substance from entering the motion conversion mechanism part , and a boot cover arranged around the boot and provided integrally with the motor case , wherein the boot and boot cover are arranged on the opposite side of the double-row bearing with respect to the transmission gear mechanism . a drive part ; a motion conversion mechanism part configured to convert a rotary motion from the drive part to a linear motion in an axial direction parallel with an output shaft of the drive part ; a driving force transmission part comprising a transmission gear mechanism configured to transmit a driving force from the drive part to the motion conversion mechanism part ; and a motion-conversion-mechanism support part comprising a double-row bearing configured to support the motion conversion mechanism part , wherein the double-row bearing is arranged on an opposite side of the drive part with respect to the transmission gear mechanism , wherein the drive part comprises a driving motor and a motor case configured to accommodate the driving motor , wherein an outer peripheral surface of the motor case on a side of the motion conversion mechanism part is arranged at a position closer to the motion conversion mechanism part than a position of an imaginary plane of an extension in the axial direction of an outer peripheral surface of the double-row bearing , characterized in that the electric actuator further comprises a boot configured to prevent a foreign substance from entering the motion conversion mechanism part , and a boot cover arranged around the boot and provided integrally with the motor case , wherein the boot and boot cover are arranged on the opposite side of the double-row bearing with respect to the transmission gear mechanism .
A process for reducing haze in a heavy base oil, the process comprising: obtaining a first effluent oil by contacting a hydrocarbon feedstock with a first catalyst including a ZSM-12 zeolite; and obtaining a second effluent oil by contacting the first effluent oil with a second catalyst including a zeolite selected from the group consisting of ZSM-48, EU-2, ZBM-30 and EU-11 zeolites. obtaining a first effluent oil by contacting a hydrocarbon feedstock with a first catalyst including a ZSM-12 zeolite; and obtaining a second effluent oil by contacting the first effluent oil with a second catalyst including a zeolite selected from the group consisting of ZSM-48, EU-2, ZBM-30 and EU-11 zeolites.
A quantum dot manufacturing method comprising: (a) dispersing, in a solvent, nano-seed particles whose crystal planes are exposed; and (b) growing semiconductor layers on the exposed crystal planes of the nano-seed particles in the solvent, wherein the step (a) comprises: (a1) preparing base particles made of group II-VI semiconductor material containing Zn or Mg as group II element, wherein the base particles contain ZnOS; and (a2) forming the nano-seed particles by etching the base particles in liquid phase. (a) dispersing, in a solvent, nano-seed particles whose crystal planes are exposed; and (b) growing semiconductor layers on the exposed crystal planes of the nano-seed particles in the solvent, (a1) preparing base particles made of group II-VI semiconductor material containing Zn or Mg as group II element, wherein the base particles contain ZnOS; and (a2) forming the nano-seed particles by etching the base particles in liquid phase.