mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a nozzle for injecting fuel, comprising a hole in the area of a nozzle tip for discharging fuel from the nozzle , wherein in the method: a reception hole hollowing out the nozzle along its longitudinal extent is produced for receiving a nozzle needle, the reception hole being produced in such a way that it comprises a seat region for sealing closure with a nozzle needle in order to enable a fuel supply to the injection hole as a function of a position of the nozzle needle, wherein the hole of the nozzle for discharging fuel is a hole drilled by means of laser, characterized in that the injection hole enters the reception hole of the nozzle at the level of the seat region or in the seat region , and when drilling the injection hole with a laser, the drilling axis of the laser is directed towards a region of the reception hole which adjoins the side of the seat region which faces away from the nozzle tip , wherein the longitudinal axis of the injection hole includes an angle to the normal plane of the longitudinal axis of the nozzle which is at least 45°, preferably at least 50°. a reception hole hollowing out the nozzle along its longitudinal extent is produced for receiving a nozzle needle, the reception hole being produced in such a way that it comprises a seat region for sealing closure with a nozzle needle in order to enable a fuel supply to the injection hole as a function of a position of the nozzle needle, wherein the hole of the nozzle for discharging fuel is a hole drilled by means of laser, characterized in that the injection hole enters the reception hole of the nozzle at the level of the seat region or in the seat region , and when drilling the injection hole with a laser, the drilling axis of the laser is directed towards a region of the reception hole which adjoins the side of the seat region which faces away from the nozzle tip , wherein the longitudinal axis of the injection hole includes an angle to the normal plane of the longitudinal axis of the nozzle which is at least 45°, preferably at least 50°.
A method for laser processing a workpiece, the method comprising: forming a contour line in the workpiece, the contour line comprising defects in the workpiece; and directing an infrared laser beam onto the workpiece along or near the contour line to separate the workpiece along the contour line, wherein the infrared laser beam has an annular beam profile such that a greater distribution of cumulated energy from the infrared laser beam is located in areas adjacent to the contour line than directly on the contour line. forming a contour line in the workpiece, the contour line comprising defects in the workpiece; and directing an infrared laser beam onto the workpiece along or near the contour line to separate the workpiece along the contour line, wherein the infrared laser beam has an annular beam profile such that a greater distribution of cumulated energy from the infrared laser beam is located in areas adjacent to the contour line than directly on the contour line.
A recreational vehicle layout, which includes a primary recreational vehicle , a secondary vehicle , a garage realized in the back of the recreational vehicle, a rear door , a sleeping cabin located above the garage , a living room , a ramp to facilitate the entry of the vehicle , a living room floor , and a movable sleeping cabin floor , and the sleeping cabin floor separates the garage from the sleeping cabin , the sleeping cabin floor includes a panel at a height (L) that exceeds the highest part of the vehicle , and the vehicle is located in the garage on a ramp that forms an acute angle with the base plate of the garage , further comprising hydraulic elevators that can move the sleeping cabin floor up and down are located in the garage and a folding step that is located between the living room floor and the sleeping cabin floor to overcome the corresponding difference in height.
An apparatus comprising at least one processing core, at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processing core, cause the apparatus at least to: - obtain an uplink transmission configuration comprising information on at least one secondary cell candidate frequency; - transmit a signal in the uplink in accordance with the uplink transmission configuration on the at least one secondary cell candidate frequency, during a connection establishment procedure which transitions the apparatus from an idle mode to a connected mode, after receiving a random access response and before receiving a security activation message, the signal being a sounding reference signal or a random access preamble; and - receive , via a primary cell, a carrier aggregation configuration from a network, wherein the carrier aggregation configuration configures the apparatus for carrier aggregation, such that inclusion of the at least one secondary cell into the carrier aggregation is based on processing a signal strength at which the at least one secondary cell received the transmitted signal in the uplink. - obtain an uplink transmission configuration comprising information on at least one secondary cell candidate frequency; - transmit a signal in the uplink in accordance with the uplink transmission configuration on the at least one secondary cell candidate frequency, during a connection establishment procedure which transitions the apparatus from an idle mode to a connected mode, after receiving a random access response and before receiving a security activation message, the signal being a sounding reference signal or a random access preamble; and - receive , via a primary cell, a carrier aggregation configuration from a network,
A method of rendering a scene in a graphics system, the method comprising: identifying a first draw call within a current render , wherein the current render samples from one or more buffers ; analysing at least a last shader in a series of shaders used by the first draw call to determine whether the last shader samples from the one or more buffers at coordinates matching a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the one or more buffers at coordinates matching a current fragment location, recompiling the last shader to replace an instruction that reads data from one of the one or more buffers at coordinates matching a current fragment location with an instruction that reads from the one or more buffers at coordinates stored in on-chip registers . identifying a first draw call within a current render , wherein the current render samples from one or more buffers ; analysing at least a last shader in a series of shaders used by the first draw call to determine whether the last shader samples from the one or more buffers at coordinates matching a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the one or more buffers at coordinates matching a current fragment location, recompiling the last shader to replace an instruction that reads data from one of the one or more buffers at coordinates matching a current fragment location with an instruction that reads from the one or more buffers at coordinates stored in on-chip registers .
A hand held power tool comprising: a motor housing in which a rotor of a motor defines an axial direction (A-A); a torque multiplier unit extending in the axial direction (A-A), the hand held power tool further comprising: an extension unit arranged to extend in the axial direction (A-A) characterised in that the extension unit is attached between the motor housing at a front end thereof and the torque multiplier unit at a back end thereof, and in that the extension unit drivingly connects the rotor to an input axis of the torque multiplier unit . a motor housing in which a rotor of a motor defines an axial direction (A-A); a torque multiplier unit extending in the axial direction (A-A), the hand held power tool further comprising: an extension unit arranged to extend in the axial direction (A-A) characterised in that the extension unit is attached between the motor housing at a front end thereof and the torque multiplier unit at a back end thereof, and in that the extension unit drivingly connects the rotor to an input axis of the torque multiplier unit .
An aircraft with an active wing-twist control system, comprising: a flexible wing defined by a wingspan, wherein the flexible wing comprises a first spar positioned in a fuselage of the aircraft and aligned in a span-wise direction, wherein a final wing tip rib is operatively coupled to the first spar ; an actuation system to torsionally rotate the first spar about a twist axis, which, in turn, causes the final wing tip rib coupled to the first spar to rotate, thereby twisting at least a portion of the flexible wing; a sensor configured to measure a characteristic of the flexible wing; and a controller configured to command the actuation system to rotate the first spar based at least in part on input from the sensor ; wherein the flexible wing further comprises a second spar having a first end operatively coupled to the fuselage and a second end operatively coupled to the first spar , such that the second spar is configured to twist, rotate, revolve and/or pivot about the first spar ; and wherein the second spar comprises an outer tube operatively coupled to a plurality of ribs , and wherein the first spar is mounted concentrically within the second spar . a flexible wing defined by a wingspan, wherein the flexible wing comprises a first spar positioned in a fuselage of the aircraft and aligned in a span-wise direction, wherein a final wing tip rib is operatively coupled to the first spar ; an actuation system to torsionally rotate the first spar about a twist axis, which, in turn, causes the final wing tip rib coupled to the first spar to rotate, thereby twisting at least a portion of the flexible wing; a sensor configured to measure a characteristic of the flexible wing; and a controller configured to command the actuation system to rotate the first spar based at least in part on input from the sensor ; wherein the flexible wing further comprises a second spar having a first end operatively coupled to the fuselage and a second end operatively coupled to the first spar , such that the second spar is configured to twist, rotate, revolve and/or pivot about the first spar ; and wherein the second spar comprises an outer tube operatively coupled to a plurality of ribs , and wherein the first spar is mounted concentrically within the second spar .
A method for producing a metal borohydride, wherein the method comprises A1. providing metal hydroxide, B 2 O 3 and H 2 to allow a synthesis process to proceed and to yield metal borohydride, optionally metal borohydride and O 2 , wherein the synthesis process proceeds according to the reaction formula 4 Me(OH) n + 2n B 2 O 3 + 6n H 2 → 4 Me(BH 4 ) n + 5n O 2 ; and A2. optionally providing metal boron oxide and H 2 to allow a synthesis process to proceed and to yield metal borohydride, especially metal borohydride and O 2 , according to the overall reaction formula Me(BO 2 ) n + 2n H 2 → Me(BH 4 ) n + n O 2 , in which Me is a metal and n is the valence of the metal ion. A1. providing metal hydroxide, B 2 O 3 and H 2 to allow a synthesis process to proceed and to yield metal borohydride, optionally metal borohydride and O 2 , wherein the synthesis process proceeds according to the reaction formula 4 Me(OH) n + 2n B 2 O 3 + 6n H 2 → 4 Me(BH 4 ) n + 5n O 2 ; and A2. optionally providing metal boron oxide and H 2 to allow a synthesis process to proceed and to yield metal borohydride, especially metal borohydride and O 2 , according to the overall reaction formula Me(BO 2 ) n + 2n H 2 → Me(BH 4 ) n + n O 2 ,
Draw-out frame for a circuit breaker , which is capable of being arranged so as to keep said circuit breaker in a plugged-in position in a connection socket or in an unplugged position from said socket , said frame comprises two stationary flanges capable of being connected to the socket , and a movable carriage capable of supporting the circuit breaker and provided with guiding means engaging with the corresponding stationary flanges in order to ensure the movement of the circuit breaker from one to the other of said plugged-in and unplugged positions, each stationary flange being fitted with an operating lever and pivots about a stationary axis (Y), said frame comprising simultaneous articulation means of the two levers , each lever being arranged to engage with said means for guiding the carriage , characterised in that each lever is provided with a handle , in that each lever is provided with a locking device arranged to block said lever in a position corresponding to one or other of said plugged-in and unplugged positions of the circuit breaker , and in that it comprises means for coupling the manipulation of the levers with the manipulation of the locking device.
A glass ceramic powder comprising i) a glass material formed from a glass mixture containing • 2-17 wt% of a lithium and oxygen containing compound selected from Li 2 O and/or Li 2 CO 3 • 70-77 wt% of SiO 2 • 2-4 wt% of K 2 O • 3-5 wt% of La 2 O 3 wherein the sum of the percentages is not to exceed 100 wt% and ii) seed particles comprising Li 2 SiO 3 crystals and/or Li 2 Si 2 O 5 crystals, wherein the seed particles is present in an amount of 1-6 wt% based on the weight of the glass material. i) a glass material formed from a glass mixture containing • 2-17 wt% of a lithium and oxygen containing compound selected from Li 2 O and/or Li 2 CO 3 • 70-77 wt% of SiO 2 • 2-4 wt% of K 2 O • 3-5 wt% of La 2 O 3 wherein the sum of the percentages is not to exceed 100 wt% and • 2-17 wt% of a lithium and oxygen containing compound selected from Li 2 O and/or Li 2 CO 3 • 70-77 wt% of SiO 2 • 2-4 wt% of K 2 O • 3-5 wt% of La 2 O 3 ii) seed particles comprising Li 2 SiO 3 crystals and/or Li 2 Si 2 O 5 crystals, wherein the seed particles is present in an amount of 1-6 wt% based on the weight of the glass material.
A magnetic cooling apparatus comprising: a plurality of magnets arranged to form a magnetic field; a magnetic regeneration unit comprising a magnetocaloric material, provided with coils for generating an electromagnetic force as kinetic energy for driving the unit; a high temperature flow path formed through the magnetic regeneration unit when the magnetic regeneration unit is magnetized inside the magnetic field; a low temperature flow path formed through the magnetic regeneration unit when the magnetic regeneration unit is demagnetized outside the magnetic field; and a controller arranged to control current supply to the coils of the magnetic regeneration unit to move the magnetic regeneration unit into and out of the magnetic field. a plurality of magnets arranged to form a magnetic field; a magnetic regeneration unit comprising a magnetocaloric material, provided with coils for generating an electromagnetic force as kinetic energy for driving the unit; a high temperature flow path formed through the magnetic regeneration unit when the magnetic regeneration unit is magnetized inside the magnetic field; a low temperature flow path formed through the magnetic regeneration unit when the magnetic regeneration unit is demagnetized outside the magnetic field; and a controller arranged to control current supply to the coils of the magnetic regeneration unit to move the magnetic regeneration unit into and out of the magnetic field.
Knitting machine part with several tool guides which are each configured for guiding a knitting tool that is movable in a movement direction (B), wherein cach tool guide has a hardened region with a hardness which is greater than the hardness of another unhardened region of the tool guide , wherein in at least one tool guide , the hardened region is configured as a non-integral region which has at least one separate component that is fixedly connected to the assigned tool guide , characterised in that in the majority of tool guides , the hardened region is configured as an integral region which in each case is formed integrally with the assigned tool guide .
A device for atmospheric water harvesting operative in an alternating sequence of an absorption phase and a desorption phase, comprising: a) an air permeable adsorbent substrate being subject to an atmospheric airflow during said absorption phase and being subject to a closed loop circulated airflow during said desorption phase; b) a liquid heated heat radiation element embedded in said adsorbent substrate and a heated liquid heating media being circulated in said heat radiation element during said desorption phase; and c) air shutters capable of blocking an entrance and an exit of said atmospheric airflow, during operation in said desorption phase; characterized by a direction of said atmospheric airflow through said adsorbent substrate being substantially transversal to a direction of said closed loop circulated airflow through said adsorbent substrate. a) an air permeable adsorbent substrate being subject to an atmospheric airflow during said absorption phase and being subject to a closed loop circulated airflow during said desorption phase; b) a liquid heated heat radiation element embedded in said adsorbent substrate and a heated liquid heating media being circulated in said heat radiation element during said desorption phase; and c) air shutters capable of blocking an entrance and an exit of said atmospheric airflow, during operation in said desorption phase;
A noise cancellation system for a noise cancellation enabled audio device, in particular headphone (HP), the system comprising - a noise cancellation filter structure comprising a noise input for receiving a noise signal (N0) and a filter output for providing a filter output signal (OUT); - a microphone input coupled to the noise input for receiving the noise signal (N0); and - a compensation output for providing a compensation signal generated from the filter output signal (OUT); wherein the filter structure comprises - a first noise filter (CF) for producing a first filter signal by filtering the noise signal (N0); - a second noise filter (AF) for producing a second filter signal by filtering the noise signal (N0); - a combiner (CMB) configured to provide the filter output signal (OUT) based on a linear combination of the first filter signal and the second filter signal; characterised in that: the second noise filter (AF) is configured to have a frequency response with a non-minimum phase, in particular a maximum-phase. - a noise cancellation filter structure comprising a noise input for receiving a noise signal (N0) and a filter output for providing a filter output signal (OUT); - a microphone input coupled to the noise input for receiving the noise signal (N0); and - a compensation output for providing a compensation signal generated from the filter output signal (OUT); wherein the filter structure comprises - a first noise filter (CF) for producing a first filter signal by filtering the noise signal (N0); - a second noise filter (AF) for producing a second filter signal by filtering the noise signal (N0); - a combiner (CMB) configured to provide the filter output signal (OUT) based on a linear combination of the first filter signal and the second filter signal;
A polyamide resin composition comprising: 100 parts by weight of a polyamide resin comprising 5 wt% to 40 wt% of an aromatic polyamide resin and 60 wt% to 95 wt% of an aliphatic polyamide resin; 30 to 70 parts by weight of inorganic fillers; and 0.5 to 5 parts by weight of a modified polyalkylene glycol, the modified polyalkylene glycol having an isocyanate group, a succinimide group or an epoxy group at one terminal of polyalkylene glycol. 100 parts by weight of a polyamide resin comprising 5 wt% to 40 wt% of an aromatic polyamide resin and 60 wt% to 95 wt% of an aliphatic polyamide resin; 30 to 70 parts by weight of inorganic fillers; and 0.5 to 5 parts by weight of a modified polyalkylene glycol, the modified polyalkylene glycol having an isocyanate group, a succinimide group or an epoxy group at one terminal of polyalkylene glycol.
A gas turbine engine combustor liner delimiting a combustion chamber , the combustor liner comprising: at least one monolithic ceramic block having a first face exposed to the combustion chamber and a second face opposite the first face , characterized in that it also includes a 3D fabric of ceramic fibers partially embedded inside the monolithic ceramic block , and partially extending outside the second face of the monolithic ceramic block , away from the combustion chamber .
Sliding gate , comprising a running rail with an oblong feed element and a motor , which is connected to a drive device such as a toothed gear , which interacts with the feed element to move the running rail , wherein the running rail in the cross-section to its longitudinal axis is C-shaped with a base and two limbs and is also downwardly open, wherein the feed element is designed as a gear rack and aligned with intervention regions for the drive device at an angle of about 90° to that lateral region of the running rail at which the feed element is arranged or attached, wherein the motor is arranged within the running rail , characterized in that the feed element is arranged on the inner side within a lateral region of the C-shaped running rail on a limb.
A method for performing an inter radio access technology, RAT, cell reselection by a user equipment, UE, in a first RAT, the first RAT being in a long term evolution, LTE, system, the method comprising: receiving , from a base station, a first system information block on an inter RAT cell reselection, the first system information block including a cell reselection threshold for a serving cell of the first RAT; receiving, from the base station, a second system information block including a cell selection quality value, Squal, based cell reselection parameter for a second RAT; determining whether the UE supports an Squal based cell reselection to the first RAT from all other RATs signaled by system information block and supported by the UE, the all other RATs including the second RAT; and performing a cell reselection to the second RAT based on the Squal, in case that the UE supports the Squal based cell reselection to the first RAT from the all other RATs, wherein a cell reselection to another RAT is performed based on a cell selection reception level value, Srxlev, in case that the UE does not support the Squal based cell reselection to the first RAT from at least one of the all other RATs, and wherein the Squal is identified based on a reference signal received quality, RSRQ, and the Srxlev is identified based on a reference signal received power, RSRP. receiving , from a base station, a first system information block on an inter RAT cell reselection, the first system information block including a cell reselection threshold for a serving cell of the first RAT; receiving, from the base station, a second system information block including a cell selection quality value, Squal, based cell reselection parameter for a second RAT; determining whether the UE supports an Squal based cell reselection to the first RAT from all other RATs signaled by system information block and supported by the UE, the all other RATs including the second RAT; and performing a cell reselection to the second RAT based on the Squal, in case that the UE supports the Squal based cell reselection to the first RAT from the all other RATs, wherein a cell reselection to another RAT is performed based on a cell selection reception level value, Srxlev, in case that the UE does not support the Squal based cell reselection to the first RAT from at least one of the all other RATs, and wherein the Squal is identified based on a reference signal received quality, RSRQ, and the Srxlev is identified based on a reference signal received power, RSRP.