mhurhangee/patent-ind-claim-en huggingface dataset:
A control method of a butterfly valve (F) of an internal combustion engine, when said internal combustion engine is running, wherein said butterfly valve is controlled by means of a control signal, indicative of an angular (alpha) position of said valve, the method comprising a step of applying a first limiting filter (Step 4) of a gradient of said control signal, when a ratio between a target pressure (Pressure_air_Target) downstream of the butterfly valve and a measured pressure (P1) upstream of the butterfly valve is greater (Step 3: YES) than a first predetermined threshold (S1).
A lubricating oil composition comprising: a base oil; and in the range of from 0.05 to 0.5% by mass of coated particles made of nanoparticles and phosphonic acid coating at least a portion of the surface of the nanoparticles, wherein the surface coverage of the coated particles by phosphonic acid is 10% or more, as calculated using an elemental analysis of the coated particles and the area of the surface occupied by phosphonic acid coating, and wherein the nanoparticles are a metal oxide.
1. Hot-rolled semi-finished 6xxx-series aluminium alloy forging stock material having a thickness in the range of 2 mm to 30 mm, and having a composition comprising of, in wt.%, Si 0.65% - 1.4%, Mg 0.60% - 0.95%, Mn 0.40% - 0.80%, Cu 0.04% - 0.28%, Fe up to 0.5%, Cr up to 0.18%, Zr up to 0.20%, Ti up to 0.15%, Zn up to 0.25%, impurities each <0.05%, total <0.2%, balance aluminium, and wherein it has a substantially unrecrystallized microstructure.
An assembly comprising: a unitary nacelle structure including an inlet region and a fan cowl region, wherein the unitary nacelle structure is configured to circumscribe an associated gas turbine engine and to direct an airstream to a fan of the gas turbine engine; and a fan housing in supported connection with the unitary nacelle structure and at least partly disposed within the nacelle structure , wherein the fan housing includes a fan case ; characterized in that : the fan housing being an integrated fan housing , wherein the integrated fan housing comprises an integral composite structure including the fan case , a fan hub and a plurality of outlet vanes , and a fan case extension adapted for fixed attachment to a support member . a unitary nacelle structure including an inlet region and a fan cowl region, wherein the unitary nacelle structure is configured to circumscribe an associated gas turbine engine and to direct an airstream to a fan of the gas turbine engine; and a fan housing in supported connection with the unitary nacelle structure and at least partly disposed within the nacelle structure , wherein the fan housing includes a fan case ;
An auxiliary power unit equipped wheel support bearing assembly comprising: a wheel support bearing assembly including a stationary ring, a rotational ring and rolling elements , wherein the stationary ring of the wheel support bearing assembly is an outer ring , and the rotational ring thereof is an inner ring , the rotational ring having a hub flange to which a wheel of a vehicle and a brake rotor are intended to be mounted, the rotational ring being rotatably supported via the rolling elements by the stationary ring; and an auxiliary power unit including a motor generator, the motor generator including a stator mounted to the stationary ring and a motor rotor mounted to the rotational ring, a rotatable casing that is fixed to an outer diameter surface of the hub flange of the inner ring , wherein the motor rotor is fixed to an inner periphery of the rotatable casing and the stator is fixed to an outer periphery of the outer ring , wherein an entirety of the auxiliary power unit is, with respect to a radial direction, sized to extend less than an outer peripheral segment of the brake rotor , which outer peripheral segment defining an area against which a brake caliper is intended to be pushed, the auxiliary power unit is, with respect to an axial direction, sized to be situated between the hub flange of the wheel support bearing assembly and a mounting face of the wheel support bearing assembly for mounting to a vehicle body of the vehicle, and the auxiliary power unit is configured to be installed to a vehicle in addition to a main drive source . a wheel support bearing assembly including a stationary ring, a rotational ring and rolling elements , wherein the stationary ring of the wheel support bearing assembly is an outer ring , and the rotational ring thereof is an inner ring , the rotational ring having a hub flange to which a wheel of a vehicle and a brake rotor are intended to be mounted, the rotational ring being rotatably supported via the rolling elements by the stationary ring; and an auxiliary power unit including a motor generator, the motor generator including a stator mounted to the stationary ring and a motor rotor mounted to the rotational ring, a rotatable casing that is fixed to an outer diameter surface of the hub flange of the inner ring , wherein the motor rotor is fixed to an inner periphery of the rotatable casing and the stator is fixed to an outer periphery of the outer ring , wherein an entirety of the auxiliary power unit is, with respect to a radial direction, sized to extend less than an outer peripheral segment of the brake rotor , which outer peripheral segment defining an area against which a brake caliper is intended to be pushed, the auxiliary power unit is, with respect to an axial direction, sized to be situated between the hub flange of the wheel support bearing assembly and a mounting face of the wheel support bearing assembly for mounting to a vehicle body of the vehicle, and the auxiliary power unit is configured to be installed to a vehicle in addition to a main drive source .
A light emitting diode comprising: a substrate having a side surface; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer ; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer , respectively; a side reflection layer covering the side surface of the substrate ; and a capping layer covering an upper surface of the substrate and the side reflection layer ; a light transmitting material layer interposed between the side surface of the substrate and the side reflection layer ; a lower end of the light transmitting material layer is flush with a lower end of the side reflection layer characterized in that a lower end of the side reflection layer is flush with a lower end of the capping layer . a substrate having a side surface; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer ; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer , respectively; a side reflection layer covering the side surface of the substrate ; and a capping layer covering an upper surface of the substrate and the side reflection layer ; a light transmitting material layer interposed between the side surface of the substrate and the side reflection layer ; a lower end of the light transmitting material layer is flush with a lower end of the side reflection layer characterized in that a lower end of the side reflection layer is flush with a lower end of the capping layer .
A power pack assembly for a medicament delivery device, the power pack comprising: - a plunger rod extending along a longitudinal axis (L) and having a proximal and an opposite distal end, - an actuator provided with a holding element and configured to interact with a corresponding holding element of the plunger rod , - a first force element arranged to exert a force on the plunger rod; - an actuator sleeve mechanism arranged to releasably lock said holding element in engagement with the corresponding holding element of said plunger rod such as to hold said first force element in a tensioned state, characterised in that said actuator sleeve mechanism comprises an actuator cap configured to hold said holding element in engagement with the corresponding holding element of said plunger rod , and in that an actuator sleeve is interconnected with said actuator cap , and wherein the actuator cap and the actuator sleeve are arranged longitudinally slidable in relation to each other, and wherein the actuator cap interacts with the holding element , and the actuator sleeve interacts with a medicament delivery member guard of the medicament delivery device such that in relation to the actuator , said actuator cap is moved a shorter distance in the distal direction than the actuator sleeve when the medicament delivery member guard is pressed against a dose delivery site such that said actuator sleeve is distally displaced in relation to the distal housing part. - a plunger rod extending along a longitudinal axis (L) and having a proximal and an opposite distal end, - an actuator provided with a holding element and configured to interact with a corresponding holding element of the plunger rod , - a first force element arranged to exert a force on the plunger rod; - an actuator sleeve mechanism arranged to releasably lock said holding element in engagement with the corresponding holding element of said plunger rod such as to hold said first force element in a tensioned state, characterised in that
A method of controlling a mobile terminal , the method comprising: the mobile terminal establishing a Bluetooth Low Energy, BLE, communication channel with a BLE device previously registered in the mobile terminal , wherein the mobile terminal is disposed within a communication range of the BLE device, wherein the mobile terminal comprises a memory having a list of registered BLE devices stored thereon, the list comprising for each registered BLE device : notification information including identification information of the BLE device , a notification message of the BLE device , and reference proximity information, wherein the reference proximity information includes a distance condition between an external object and the BLE device ; the mobile terminal receiving , via the BLE communication channel, identification information of the BLE device and proximity information of an external object detected by the BLE device from the BLE device , wherein the received proximity information includes distance information between the detected external object and the BLE device ; the mobile terminal extracting , from the list, the notification message and the reference proximity information corresponding to the received identification information of the BLE device ; the mobile terminal comparing the distance information included in the received proximity information with the distance condition included in the extracted reference proximity information; and the mobile terminal outputting the extracted notification message based on a comparison result. the mobile terminal establishing a Bluetooth Low Energy, BLE, communication channel with a BLE device previously registered in the mobile terminal , wherein the mobile terminal is disposed within a communication range of the BLE device, wherein the mobile terminal comprises a memory having a list of registered BLE devices stored thereon, the list comprising for each registered BLE device : notification information including identification information of the BLE device , a notification message of the BLE device , and reference proximity information, wherein the reference proximity information includes a distance condition between an external object and the BLE device ; the mobile terminal receiving , via the BLE communication channel, identification information of the BLE device and proximity information of an external object detected by the BLE device from the BLE device , wherein the received proximity information includes distance information between the detected external object and the BLE device ; the mobile terminal extracting , from the list, the notification message and the reference proximity information corresponding to the received identification information of the BLE device ; the mobile terminal comparing the distance information included in the received proximity information with the distance condition included in the extracted reference proximity information; and the mobile terminal outputting the extracted notification message based on a comparison result.
An image processing apparatus for a vehicle , the apparatus comprising: an additional-image generation portion configured to generate an additional image (Ii) to be added to a captured image (Ic); and an output image generation portion configured to generate an output image (Io) including the captured image (Ic) and the additional image (Ii); the additional image (Ii) including a first marking image (Ii1) indicating a first line (L1) and a first additional image (Ie) indicating an object , the first line (L1) being along a vehicle front and rear direction and away from an end portion of the vehicle in a vehicle width direction by a first distance (D) being a vehicle width (W) of the vehicle or longer, wherein when the object extracted from the captured image (Ic) is determined to be located within the first distance (D) indicated by the first line (L1) from the vehicle in the vehicle width direction, the additional-image generation portion generates the first additional image (Ie) based on the object extracted from the captured image (Ic). an additional-image generation portion configured to generate an additional image (Ii) to be added to a captured image (Ic); and an output image generation portion configured to generate an output image (Io) including the captured image (Ic) and the additional image (Ii); the additional image (Ii) including a first marking image (Ii1) indicating a first line (L1) and a first additional image (Ie) indicating an object , the first line (L1) being along a vehicle front and rear direction and away from an end portion of the vehicle in a vehicle width direction by a first distance (D) being a vehicle width (W) of the vehicle or longer, wherein when the object extracted from the captured image (Ic) is determined to be located within the first distance (D) indicated by the first line (L1) from the vehicle in the vehicle width direction, the additional-image generation portion generates the first additional image (Ie) based on the object extracted from the captured image (Ic).
A method performed by a primary Radio Link Control, RLC, entity in a first network node , the method comprising: receiving (1010; 310) packets from a Packed Data Convergence Protocol, PDCP, entity ; separating (1020; 320) the received packets into at least a first group and a second group; assigning (1030; 330) sequence numbers to the packets of the first group from a sequence number range allocated to at least one secondary RLC entity in a second network node , the at least one secondary RLC entity connected to the primary RLC entity through a RLC channel ; sending (1040; 350) the packets of the first group with the assigned sequence numbers to the at least one secondary RLC entity . receiving (1010; 310) packets from a Packed Data Convergence Protocol, PDCP, entity ; separating (1020; 320) the received packets into at least a first group and a second group; assigning (1030; 330) sequence numbers to the packets of the first group from a sequence number range allocated to at least one secondary RLC entity in a second network node , the at least one secondary RLC entity connected to the primary RLC entity through a RLC channel ; sending (1040; 350) the packets of the first group with the assigned sequence numbers to the at least one secondary RLC entity .
A method of making a mutant Cas9 protein comprising identifying one or more amino acid sequences that are not highly conserved or have low conservation within a family of Cas9 proteins, wherein the one or more amino acid sequences that are not highly conserved or have low conservation are identified by obtaining a sequence alignment of multiple Cas9 amino acid sequences, and by identifying stretches of low conservation or stretches between conservation edges, wherein the conservation of said amino acid sequences is calculated as the relative entropy of amino acid frequencies per position, identifying a nucleic acid sequence encoding the one or more identified amino acid sequences, generating a nucleic acid sequence encoding a target Cas9 protein which lacks the nucleic acid sequence encoding the one or more identified amino acid sequences, and generating a mutant Cas9 protein from the generated nucleic acid sequence, wherein the mutant Cas9 protein retains DNA binding activity.
A turbine stage comprising: a rotor with blades that, in operation, present a pressure difference between a pressure side and a suction side ; a turbine ring surrounding the rotor ; a plurality of monitoring devices , each comprising an acoustic sensor , for monitoring a turbine rotor ; and a calculation unit connected to the acoustic sensors of the plurality of monitoring devices ; and characterised in that each of said monitoring devices also comprises a sound waveguide for connecting said acoustic sensor to a sensing point close to said turbine rotor ; and in that the monitoring devices are located at different angular positions in the turbine ring , the acoustic sensor being suitable for detecting, as soundwaves, pressure fluctuations due to pressure differences between the suction and pressure sides of blades of the rotor as they move past in the proximity of said sensing point, and the calculation unit being configured to indicate an ovalisation of the turbine ring based on signals transmitted by the monitoring devices . a rotor with blades that, in operation, present a pressure difference between a pressure side and a suction side ; a turbine ring surrounding the rotor ; a plurality of monitoring devices , each comprising an acoustic sensor , for monitoring a turbine rotor ; and a calculation unit connected to the acoustic sensors of the plurality of monitoring devices ; and characterised in that each of said monitoring devices also comprises a sound waveguide for connecting said acoustic sensor to a sensing point close to said turbine rotor ; and in that the monitoring devices are located at different angular positions in the turbine ring , the acoustic sensor being suitable for detecting, as soundwaves, pressure fluctuations due to pressure differences between the suction and pressure sides of blades of the rotor as they move past in the proximity of said sensing point, and the calculation unit being configured to indicate an ovalisation of the turbine ring based on signals transmitted by the monitoring devices .
Method for detecting a longitudinal parking space for parking a motor vehicle , in which while the motor vehicle is being moved relative to a parking area on a lane , at least one roadway marking is sensed on the basis of sensor data of at least one sensor of the motor vehicle and the longitudinal parking space within the parking area is detected on the basis of the sensed, at least one roadway marking, when the longitudinal parking space is detected if a line which divides the lane from the parking area is sensed as the at least one roadway marking and if a boundary object is detected as a boundary for the longitudinal parking space on the basis of the sensor data, characterized in that the longitudinal parking space is detected in such a way that the latter is oriented parallel to the detected line .
Pliers comprising two pliers legs which intersect at a hinge pin , of which one pliers leg is movable and the other pliers leg is stationary, and comprising a spring which is arranged between the stationary pliers leg and the hinge pin and assists with toothed engagement of the hinge pin , the pliers legs forming grip portions on one side of the hinge pin and a pliers mouth (M) on the other side, the hinge pin , through which an axis of rotation (x) of the movable pliers leg extends at the same time, also being adjustable in a longitudinal slot of the stationary pliers leg , and the movable pliers leg being selectively fixable relative to the stationary pliers leg by means of a toothed engagement between the hinge pin and the longitudinal slot , which engagement takes place in the direction of a plane which is spanned by the pliers legs , the hinge pin additionally being received in an opening which is only partially circular and has a driving form which deviates from the circular shape, for cooperation with a counter driving form of the hinge pin , the hinge pin being rotatably guided in the circular portion of the opening , and a circular line (K) being predetermined by the circular portion of the opening , characterised in that the driving form projects radially inwards with respect to the circular line (K), and the counter driving form is also formed within the circular line (K).
A method in a wireless device , the method comprising: receiving (S146) an aperiodic channel state information reference signal, aperiodic CSI-RS, based on an assumption that the aperiodic CSI-RS is not present in physical layer resources corresponding to a downlink control channel set; and the wireless device assuming that the aperiodic CSI-RS is not transmitted in a subframe in physical resource blocks, PRBs, corresponding to the downlink control channel set with which the wireless device is configured, if the wireless device receives a downlink control channel message in the subframe that indicates that an aperiodic CSI-RS has been transmitted in the downlink control channel set. receiving (S146) an aperiodic channel state information reference signal, aperiodic CSI-RS, based on an assumption that the aperiodic CSI-RS is not present in physical layer resources corresponding to a downlink control channel set; and the wireless device assuming that the aperiodic CSI-RS is not transmitted in a subframe in physical resource blocks, PRBs, corresponding to the downlink control channel set with which the wireless device is configured, if the wireless device receives a downlink control channel message in the subframe that indicates that an aperiodic CSI-RS has been transmitted in the downlink control channel set.