mhurhangee/patent-ind-claim-en huggingface dataset:
A LiDAR system for detecting objects in a region of interest of an autonomous vehicle comprising: a radiation source component configured to emit output beams ; a scanner component configured to direct the output beams onto the region of interest; a receiver component configured to receive input beams reflected from objects in the region of interest along an inner detection pathway ; a shutter component configured to modulate between a closed position and an open position, the inner detection pathway being at least partially blocked when the shutter component is in the closed position, and the inner detection pathway being open when the shutter component is in the open position; a controller component communicatively coupled to the shutter component such that: the shutter component is in the closed position while the radiation source component is emitting the output beams , and the shutter component is in the open position while receiving the reflected input beams of the given output beams from the region of interest. a radiation source component configured to emit output beams ; a scanner component configured to direct the output beams onto the region of interest; a receiver component configured to receive input beams reflected from objects in the region of interest along an inner detection pathway ; a shutter component configured to modulate between a closed position and an open position, the inner detection pathway being at least partially blocked when the shutter component is in the closed position, and the inner detection pathway being open when the shutter component is in the open position; a controller component communicatively coupled to the shutter component such that: the shutter component is in the closed position while the radiation source component is emitting the output beams , and the shutter component is in the open position while receiving the reflected input beams of the given output beams from the region of interest. the shutter component is in the closed position while the radiation source component is emitting the output beams , and the shutter component is in the open position while receiving the reflected input beams of the given output beams from the region of interest.
A washing machine comprising a body ; a tub which is disposed in the body ; a drum which is disposed in the tub and wherein the washing process is performed; a housing which is arranged on the body and which is in fluid communication with the tub ; a circulation line which enables the water received from the tub to be delivered to the housing ; a dispenser which is movably disposed into the housing ; and a filter box placed into the dispenser so as to move together with the dispenser and having at least one filter through which the water coming from the circulation line is passed and which filters the fibers in the water, characterized by a cleaning member having an arm which is fixed to the housing and which extends from the housing into the dispenser , and a headpiece which is provided on the arm and which is arranged to scrape the filter as the dispenser is moved with respect to the housing and sweep the fibers on the filter .
Wall frame, with one or more wall connection sections for receiving one or more wall coverings , in particular one or more gypsum boards, and a door leaf receiving section for receiving at least one door leaf without a frame, wherein the frameless wall frame including wall connection section(s) and door panel receiving section is made of gypsum material or fibre cement material panels and is adapted to be mounted in dry construction and provided with wall planking , wherein the one or more wall connection sections comprise one or more step offsets for receiving the one or more wall planking(s) . a door leaf receiving section for receiving at least one door leaf without a frame, wherein the frameless wall frame including wall connection section(s) and door panel receiving section is made of gypsum material or fibre cement material panels and is adapted to be mounted in dry construction and provided with wall planking , wherein the one or more wall connection sections comprise one or more step offsets for receiving the one or more wall planking(s) .
A door hinge of four-link rod, which can cushion self-close, comprising: a door hinge of four-link rod, which is formed by hinging a hinge seat , a hinge cup , a support link rod arm and an elastic link rod arm , and a damper for cushioning self-close of the door hinge, characterized in that : the support link rod arm has a bilateral fork arm hinged with the hinge cup, the damper is slidingly mounted in the hinge cup between the two fork arms along a swinging direction of the support link rod arm, an end of a piston rod of the damper abuts against an internal wall of the hinge cup adjacent to the hinging side, two sides of a cylinder body of the damper are formed with a boss (52.1) which surface faces towards a bottom of the cylinder body , the two fork arms each form a protrusion (31.1) which can abut against the surface of the boss (52.1).
Process for the enrichment of an isotope composition by chromatography on a saturated stationary phase, wherein - the stationary phase is saturated with at least partially the composition to be enriched, - the isotope composition to be enriched is gaseous, - the stationary phase is an adsorbing porous material, the adsorbing porous material is a molecular sieve, characterised in that the molecular sieve is a zeolite. - the stationary phase is saturated with at least partially the composition to be enriched, - the isotope composition to be enriched is gaseous, - the stationary phase is an adsorbing porous material, the adsorbing porous material is a molecular sieve, characterised in that the molecular sieve is a zeolite.
A diesel engine including: a combustion chamber ; a fuel charging means for charging a fuel oil serving as an ignition source, and gaseous ammonia into the combustion chamber , wherein the fuel charging means forms an ammonia premixed gas in the combustion chamber by the fuel oil and gaseous ammonia introduced into the combustion chamber and perform mixed combustion, further including a setting means capable of setting a plurality of different ammonia mixing ratio values, and a control means for adjusting an air excess ratio value in a total sum of the fuel oil and the ammonia to be introduced by the charging means based on the ammonia mixing ratio value set by the setting means, wherein the ammonia mixing ratio value set by the setting means is set between 15% and 85% inclusive, wherein when the ammonia mixing ratio value set by the setting means is changed from a first value to a second value having an ammonia mixing ratio higher than the first value, the control means changes the first air excess ratio value adjusted corresponding to the first value to a second air excess ratio value smaller than the first air excess ratio value, wherein when the ammonia mixing ratio value set by the setting means is set to a value of 65% or more, the air excess ratio value is adjusted to 1.0 or less, wherein when the ammonia mixing ratio value set by the setting means is set to a value of 15% or more and 25% or less, the control means adjusts the air excess ratio value to be 1.0 to 1.5 lower than the air excess ratio value during operation using only fuel oil, and wherein a required air amount is determined as a supply air pressure. further including a setting means capable of setting a plurality of different ammonia mixing ratio values, and a control means for adjusting an air excess ratio value in a total sum of the fuel oil and the ammonia to be introduced by the charging means based on the ammonia mixing ratio value set by the setting means, wherein the ammonia mixing ratio value set by the setting means is set between 15% and 85% inclusive, wherein when the ammonia mixing ratio value set by the setting means is changed from a first value to a second value having an ammonia mixing ratio higher than the first value, the control means changes the first air excess ratio value adjusted corresponding to the first value to a second air excess ratio value smaller than the first air excess ratio value, wherein when the ammonia mixing ratio value set by the setting means is set to a value of 65% or more, the air excess ratio value is adjusted to 1.0 or less, wherein when the ammonia mixing ratio value set by the setting means is set to a value of 15% or more and 25% or less, the control means adjusts the air excess ratio value to be 1.0 to 1.5 lower than the air excess ratio value during operation using only fuel oil, and wherein a required air amount is determined as a supply air pressure.
Method comprising the following steps: - producing a circuit board (P) in a production step (P1, P2, P3) or in a plurality of production steps (P1, P2, P3); - in each case, providing production data (x1, ..., xn) during at least one production step (P1, P2, P3); wherein the production data is the position of a solder paste on a circuit board, the deviation of the applied solder paste in relation to a target position or a target pattern, the thickness of the applied layer of the solder paste, and/or a temperature or an air humidity of the respective environment of the circuit board, - calculating a quality indicator (QI) on the basis of the respective production data (x1, ..., xn), characterised in that the method comprises the following step: - associating the quality indicator (QI) with the respective circuit board (P). - producing a circuit board (P) in a production step (P1, P2, P3) or in a plurality of production steps (P1, P2, P3); - in each case, providing production data (x1, ..., xn) during at least one production step (P1, P2, P3); wherein the production data is the position of a solder paste on a circuit board, the deviation of the applied solder paste in relation to a target position or a target pattern, the thickness of the applied layer of the solder paste, and/or a temperature or an air humidity of the respective environment of the circuit board, - calculating a quality indicator (QI) on the basis of the respective production data (x1, ..., xn), characterised in that the method comprises the following step: - associating the quality indicator (QI) with the respective circuit board (P).
A crankshaft for a reciprocating internal combustion piston engine, comprising a counterweight having a body with a proximal side at which the counterweight is attached to the crankshaft , and a freely extending distal side opposite to the proximal side, wherein the body comprises a cavity housing a solid insert , and wherein the body is of a monolithic structure defining the cavity , and wherein the cavity has a single opening towards the proximal side , through which opening the solid insert has been introduced into the cavity by casting, characterized in that a mating surface of the crankshaft , at which the counterweight is attached, covers the opening . wherein the body comprises a cavity housing a solid insert , and wherein the body is of a monolithic structure defining the cavity , and wherein the cavity has a single opening towards the proximal side , through which opening the solid insert has been introduced into the cavity by casting, characterized in that a mating surface of the crankshaft , at which the counterweight is attached, covers the opening .
A method performed by a terminal supporting a narrowband internet of things, NB-IoT, in a wireless communication system, the method comprising: receiving, from a base station, a system information block, SIB, including first information indicating a report of downlink channel quality; generating a result of a downlink channel quality measurement performed based on the first information included in the SIB; and transmitting, to the base station, a radio resource control, RRC, message which is a message 3, MSG3, of a random access procedure, the RRC message including second information corresponding to the result, wherein the second information includes a plurality of bits indicating information on a minimum NB-IoT physical downlink control channel, NPDCCH, repetition level which satisfies a predetermined block error rate, BLER, wherein the plurality of bits being all 0 indicate that no information is reported for the downlink channel quality measurement, and wherein a value of the plurality of bits other than all 0 indicates the result. receiving, from a base station, a system information block, SIB, including first information indicating a report of downlink channel quality; generating a result of a downlink channel quality measurement performed based on the first information included in the SIB; and transmitting, to the base station, a radio resource control, RRC, message which is a message 3, MSG3, of a random access procedure, the RRC message including second information corresponding to the result, wherein the second information includes a plurality of bits indicating information on a minimum NB-IoT physical downlink control channel, NPDCCH, repetition level which satisfies a predetermined block error rate, BLER, wherein the plurality of bits being all 0 indicate that no information is reported for the downlink channel quality measurement, and wherein a value of the plurality of bits other than all 0 indicates the result.
A power supply system with self-excited drive function coupled to a power receiving apparatus through a positive power wire (Lp+) and a negative power wire (Lp-), characterized in that the power supply system comprising: a power supply apparatus configured to output a DC power source between the positive power wire (Lp+) and the negative power wire (Lp-), a logic disconnection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), a self-boosting circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and configured to convert a voltage between the positive power wire (Lp+) and the negative power wire (Lp-) into an auxiliary voltage (Va), and a receiving end of the self-boosting circuit coupled to an output end of the logic disconnection circuit , a protection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and coupled to the self-boosting circuit to receive the auxiliary voltage (Va), and a current sensing unit coupled to the positive power wire (Lp+) or the negative power wire (Lp-), and configured to output a current sensing signal (Is) according to a current flowing through the positive power wire (Lp+) or the negative power wire (Lp-), wherein the protection circuit makes a short circuit or an open circuit between the positive power wire (Lp+) and the negative power wire (Lp-) according to the current sensing signal (Is), and the logic disconnection circuit disables or enables the self-boosting circuit according to the voltage between the positive power wire (Lp+) and the negative power wire (Lp-). a power supply apparatus configured to output a DC power source between the positive power wire (Lp+) and the negative power wire (Lp-), a logic disconnection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), a self-boosting circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and configured to convert a voltage between the positive power wire (Lp+) and the negative power wire (Lp-) into an auxiliary voltage (Va), and a receiving end of the self-boosting circuit coupled to an output end of the logic disconnection circuit , a protection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and coupled to the self-boosting circuit to receive the auxiliary voltage (Va), and a current sensing unit coupled to the positive power wire (Lp+) or the negative power wire (Lp-), and configured to output a current sensing signal (Is) according to a current flowing through the positive power wire (Lp+) or the negative power wire (Lp-), wherein the protection circuit makes a short circuit or an open circuit between the positive power wire (Lp+) and the negative power wire (Lp-) according to the current sensing signal (Is), and the logic disconnection circuit disables or enables the self-boosting circuit according to the voltage between the positive power wire (Lp+) and the negative power wire (Lp-).
A knit sleeve for providing protection to an elongate member , comprising: a tubular knit wall having opposite end regions extending to opposite free ends and an intermediate region extending between said end regions , said intermediate region being formed as a knit single layer and each of said end regions being formed having knit inner and outer layers characterized in that each end region has a pair of dual layer sections diametrically opposite one another, said pair of dual layer sections being circumferentially spaced from one another by a pair of diametrically opposed gaps .
Method for producing micromechanical components , in which a liquid starting material , which can be cured by irradiation, is applied onto a substrate, and the starting material is cured by local irradiation using a first radiation source in a partial volume in order to produce at least one three-dimensional structure, characterized in that the three-dimensional structure delimits at least one closed cavity , which encloses at least part of the liquid starting material , wherein the radiation is focused on a focal point and by selecting the focal position a three-dimensional structure is written into the starting material by point-to-point exposure.
A method for generating a control signal for positioning a substrate of a manufacturing device , which can be height-adjusted in relation to a working surface , wherein the manufacturing device is designed for additive manufacturing of a three-dimensional component from powder , comprising the steps: arranging the building platform on the substrate , capturing a plurality of images (40A-40F) of the working surface in the region of the substrate , wherein an image-specific height of the substrate is adjusted before capturing one of the plurality of images and depending on the direction of change in height, a powder layer is applied or removed, determining a powder boundary line between a powder-free region and a powder-covered region of the building platform for at least two of the plurality of images (40A-40F), which have been captured for differently adjusted image-specific heights of the substrate ; and producing a control signal for positioning the substrate based on the at least two powder boundary lines . arranging the building platform on the substrate , capturing a plurality of images (40A-40F) of the working surface in the region of the substrate , wherein an image-specific height of the substrate is adjusted before capturing one of the plurality of images and depending on the direction of change in height, a powder layer is applied or removed, determining a powder boundary line between a powder-free region and a powder-covered region of the building platform for at least two of the plurality of images (40A-40F), which have been captured for differently adjusted image-specific heights of the substrate ; and producing a control signal for positioning the substrate based on the at least two powder boundary lines .
A method of fabricating an organic electronic device , characterized in that said method comprises: fabricating a lower electrode layer upon a substrate of said device, wherein said lower electrode layer having a top exposed surface, wherein said lower electrode layer comprises indium tin oxide, wherein said substrate having a surface; placing said device in a chamber ; placing a hole transporting monomer material into said chamber ; vapor depositing said hole transporting monomer onto said device, and polymerizing at least a portion of said hole transporting monomer , wherein the step of depositing and polymerizing is processed selectively on said top exposed surface of said lower electrode layer wherein said polymerization forms a hole transporting layer over said top exposed surface of said lower electrode layer . fabricating a lower electrode layer upon a substrate of said device, wherein said lower electrode layer having a top exposed surface, wherein said lower electrode layer comprises indium tin oxide, wherein said substrate having a surface; placing said device in a chamber ; placing a hole transporting monomer material into said chamber ; vapor depositing said hole transporting monomer onto said device, and polymerizing at least a portion of said hole transporting monomer , wherein the step of depositing and polymerizing is processed selectively on said top exposed surface of said lower electrode layer wherein said polymerization forms a hole transporting layer over said top exposed surface of said lower electrode layer .
A wood chip fireproof water resistant material to make oriented strand boards characterized in that the material consists of a mixture containing 30 to 43 weight percent of wood chips, 53 to 61.9 weight percent of an aqueous solution of sodium silicate, 2 to 5 weight percent of aluminium hydroxide, 1 to 3 weight percent of water, 0.1 to 1 weight percent of a stabilizer of the aqueous solution of silicate, which is hydrophilic alkoxyle alkyl ammonia salts, in the form of 98-percent aqueous solution of N,N,N',N'-Tetrakis (2-hydroxypropyl) ethylene diamine, and a hardener of the aqueous solution of sodium silicate in the concentration of 0.5 to 5 weight percent to the pure aqueous solution of sodium silicate providing always that the density of the aqueous solution of sodium silicate ranges from 1370 to 1400 kg/m 3 and the SiO 2 to NA 2 O molar ratio in an aqueous solution of sodium silicate ranges from 3.2 to 3.4.
Method for detecting and assessing ultrasonic sources with a broadband ultrasonic microphone, wherein the ultrasonic sources constitute acoustic effects of an electrical partial discharge which propagate through airborne sound, characterized in that a broadband ultrasonic signal from at least one ultrasonic source is measured; at least one frequency range of the ultrasonic signal is evaluated; and in that the frequency range in which the ultrasonic signal is evaluated is selected on the basis of the distance between the ultrasonic microphone and the ultrasonic source. a broadband ultrasonic signal from at least one ultrasonic source is measured; at least one frequency range of the ultrasonic signal is evaluated; and in that the frequency range in which the ultrasonic signal is evaluated is selected on the basis of the distance between the ultrasonic microphone and the ultrasonic source.