mhurhangee/patent-ind-claim-en huggingface dataset:
A sunscreen composition comprising one or more sunscreen actives; a water-soluble polymer having a solubility of at least 10 wt. % in an aqueous solution at 25 °C, comprising poloxamer 338 (and) PPG-12/SMDI copolymer, present in an amount of 0.01 wt.% to 10 wt.%, based on the total weight of the sunscreen composition; and a water-insoluble polymer present in an amount of 0.01 wt.% to 5.0 wt.%, based on the total weight of the sunscreen composition, wherein a combination of said water-soluble polymer and said water-insoluble polymer preserves at least one of in vitro SPF effectiveness and critical wavelength after exposure to water and salt.
A front vehicle-body structure of a vehicle, the front vehicle-body structure comprising: a front wheel in which a tire is mounted on a wheel ; and a side sill extending substantially in a front-rear direction on a rear side of the front wheel , wherein a position of the side sill in a vehicle width direction at least partially overlapping with the front wheel , wherein the side sill has a side sill inner portion positioned on a vehicle-width-direction inner side, and a side sill outer portion positioned on a vehicle-width-direction outer side, and vehicle-width-direction end portions of the side sill inner portion and the side sill outer portion are joined to each other at a flange portion formed by causing the vehicle-width-direction end portions to abut against each other, so that a cross-sectional shape of the side sill orthogonally intersecting with the front-rear direction is formed as a closed cross-section; characterized in that the side sill inner portion is configured to have a higher buckling strength in the front-rear direction than the side sill outer portion ; the flange portion has an inclined portion extending substantially in a direction inclined to the vehicle-width-direction outer side toward a rear side, and a flange front-end portion bent from the inclined portion , extending to a front side, and positioned on a front-end portion of the side sill ; and wherein the flange front-end portion is positioned to be closer to the vehicle-width-direction inner side than a center line (L0) of the wheel in the vehicle width direction. a front wheel in which a tire is mounted on a wheel ; and a side sill extending substantially in a front-rear direction on a rear side of the front wheel , wherein a position of the side sill in a vehicle width direction at least partially overlapping with the front wheel , wherein the side sill has a side sill inner portion positioned on a vehicle-width-direction inner side, and a side sill outer portion positioned on a vehicle-width-direction outer side, and vehicle-width-direction end portions of the side sill inner portion and the side sill outer portion are joined to each other at a flange portion formed by causing the vehicle-width-direction end portions to abut against each other, so that a cross-sectional shape of the side sill orthogonally intersecting with the front-rear direction is formed as a closed cross-section; characterized in that the side sill inner portion is configured to have a higher buckling strength in the front-rear direction than the side sill outer portion ; the flange portion has an inclined portion extending substantially in a direction inclined to the vehicle-width-direction outer side toward a rear side, and a flange front-end portion bent from the inclined portion , extending to a front side, and positioned on a front-end portion of the side sill ; and wherein the flange front-end portion is positioned to be closer to the vehicle-width-direction inner side than a center line (L0) of the wheel in the vehicle width direction.
An ingot puller apparatus for producing a doped single crystal silicon ingot, the ingot puller apparatus comprising: a housing defining a chamber ; a crucible disposed within the chamber; and a dopant injector extending into the housing, the dopant injector comprising: a delivery module attached to and extending through the housing into the chamber, the delivery module comprising: a dopant injection tube positioned within the chamber; and a vaporization cup positioned within the dopant injection tube and the chamber, wherein a valve selectively channels the liquid dopant into the vaporization cup and the vaporization cup vaporizes the liquid dopant into a vaporized dopant. a housing defining a chamber ; a crucible disposed within the chamber; and a dopant injector extending into the housing, the dopant injector comprising: a delivery module attached to and extending through the housing into the chamber, the delivery module comprising: a dopant injection tube positioned within the chamber; and a vaporization cup positioned within the dopant injection tube and the chamber, wherein a valve selectively channels the liquid dopant into the vaporization cup and the vaporization cup vaporizes the liquid dopant into a vaporized dopant. a dopant injection tube positioned within the chamber; and a vaporization cup positioned within the dopant injection tube and the chamber, wherein a valve selectively channels the liquid dopant into the vaporization cup and the vaporization cup vaporizes the liquid dopant into a vaporized dopant.
A self-adjusting liner assembly for a welding torch comprising: an elongated tubular body having a forward end , a rearward end , and a central bore extending from said forward end to said rearward end ; an elongated fixed tube mounted in said bore ; an elongated tubular slide having an inner end , an outer end , and a shoulder proximate said outer end ; said fixed tube being received in said inner end of said slide , and said slide cooperating with said fixed tube in a telescoping relationship in said bore ; and a resilient member disposed in said bore and enveloping a portion of said fixed tube and said slide , said resilient member engaging said shoulder of said slide and urging said slide away from said fixed tube and toward the forward end of said body , said central bore of the elongated tubular body including a stop in said forward end for limiting the movement of the slide and a seat in said rearward end , characterized in that said self-adjusting liner assembly further comprises an inlet guide being removably disposed in said rearward end of said elongated tubular body engaging the seat and including a recess , which is defined by an increased diameter portion of a passage through the inlet guide, receiving the elongated fixed tube , and an opposite end of the resilient member engaging the inlet guide . an elongated tubular body having a forward end , a rearward end , and a central bore extending from said forward end to said rearward end ; an elongated fixed tube mounted in said bore ; an elongated tubular slide having an inner end , an outer end , and a shoulder proximate said outer end ; said fixed tube being received in said inner end of said slide , and said slide cooperating with said fixed tube in a telescoping relationship in said bore ; and a resilient member disposed in said bore and enveloping a portion of said fixed tube and said slide , said resilient member engaging said shoulder of said slide and urging said slide away from said fixed tube and toward the forward end of said body , said central bore of the elongated tubular body including a stop in said forward end for limiting the movement of the slide and a seat in said rearward end , characterized in that said self-adjusting liner assembly further comprises an inlet guide being removably disposed in said rearward end of said elongated tubular body engaging the seat and including a recess , which is defined by an increased diameter portion of a passage through the inlet guide, receiving the elongated fixed tube , and an opposite end of the resilient member engaging the inlet guide .
A method performed by a coordination node for controlling communications between Visible Light Communication, VLC, Access Points, APs, and user equipment, UEs, the method comprising: identifying occurrence of an event relating to operation of a first VLC AP ; determining that a second VLC AP and a third VLC AP each have communication coverage areas that are at least partially within a communication coverage area of the first VLC AP , responsive to identification of occurrence of the event; and controlling the second and the third VLC APs responsive to the determination to avoid their interfering with communications between the first VLC AP and any UEs within common communication coverage areas of the second or the third VLC APs . identifying occurrence of an event relating to operation of a first VLC AP ; determining that a second VLC AP and a third VLC AP each have communication coverage areas that are at least partially within a communication coverage area of the first VLC AP , responsive to identification of occurrence of the event; and controlling the second and the third VLC APs responsive to the determination to avoid their interfering with communications between the first VLC AP and any UEs within common communication coverage areas of the second or the third VLC APs .
Autonomous fluid compressor device for supplying compressed fluid to a cable laying device , the fluid compressor comprising: - a fluid compressing unit arranged to compress fluid and comprising an exhaust valve, - an electric motor , for driving the fluid compressing unit , - a rechargeable power unit , to supply electric power to the electric motor ; - a fluid supply port connected to the exhaust valve, for being connected to the cable laying device to supply compressed fluid, wherein the fluid compressor comprises: - an input unit , arranged to be connected to the cable laying device for receiving a fluid demand signal indicating a fluid demand from the cable laying device, - a control unit , connected to the input unit, and arranged to control the motor based on the fluid demand signal received from the input unit , so that the fluid compressing unit delivers compressed fluid, to meet the fluid demand from the cable laying device , characterized in that a volume of tubing forming fluid path between the supply port: and the exhaust valve is lower than 15 liters, and preferably lower than 10 liters. - a fluid compressing unit arranged to compress fluid and comprising an exhaust valve, - an electric motor , for driving the fluid compressing unit , - a rechargeable power unit , to supply electric power to the electric motor ; - a fluid supply port connected to the exhaust valve, for being connected to the cable laying device to supply compressed fluid, wherein the fluid compressor comprises: - an input unit , arranged to be connected to the cable laying device for receiving a fluid demand signal indicating a fluid demand from the cable laying device, - a control unit , connected to the input unit, and arranged to control the motor based on the fluid demand signal received from the input unit , so that the fluid compressing unit delivers compressed fluid, to meet the fluid demand from the cable laying device , characterized in that a volume of tubing forming fluid path between the supply port: and the exhaust valve is lower than 15 liters, and preferably lower than 10 liters.
A method performed by a user equipment, UE, for communicating in a wireless communication network, wherein the UE is configured with one or more periodic uplink, UL, grants indicating one or more UL resources to use for one or more UL transmissions, the method comprising - receiving a dynamic UL grant for an UL transmission; - prioritizing an UL transmission of the one or more configured periodic UL grants over an UL transmission of the dynamic UL grant under a condition that there is UL data to be transmitted on the one or more configured periodic UL grants according to a logical channel prioritization procedure; and prioritizing an UL transmission of the dynamic UL grant over an UL transmission of the one or more configured periodic UL grants under a condition that UL transmission of the one or more configured periodic UL grants is skipped due to no data available on logical channels allowed to transmit on the one or more configured periodic UL grants. - receiving a dynamic UL grant for an UL transmission; - prioritizing an UL transmission of the one or more configured periodic UL grants over an UL transmission of the dynamic UL grant under a condition that there is UL data to be transmitted on the one or more configured periodic UL grants according to a logical channel prioritization procedure; and prioritizing an UL transmission of the dynamic UL grant over an UL transmission of the one or more configured periodic UL grants under a condition that UL transmission of the one or more configured periodic UL grants is skipped due to no data available on logical channels allowed to transmit on the one or more configured periodic UL grants.
A container for sealant liquid to repair an inflatable article, preferably pneumatic, comprising a shell defining an inner volume for a sealant liquid, an inlet port for introduction of a gas under pressure into the inner volume , an outlet port for injection of the sealant liquid after pressurisation of the inlet port , a closure unit configurable between a closed position, wherein the sealant liquid is held in the inner volume and an open position reached after pressurisation of the inlet port , wherein the inlet port and the outlet port are connected by means of the inner volume , said inlet port and said outlet port being on opposing sides with respect to the inner volume , wherein the closure unit comprises an inlet fluidly connected to the inlet port and an outlet fluidly connected to the outlet port , characterized in that the closure unit further comprises at least one passage (17; 19) to connect to each other the inlet and the outlet so that the pressure at the inlet port is transmitted to the outlet port .
Building module for erecting a freestanding building, wherein the building module comprises - a rectangular floor frame and a rectangular ceiling frame , each with two longitudinal sides and two narrow sides, - four vertical supporting supports , which connect the floor frame to the ceiling frame and are arranged at each corner of the floor and ceiling frame, the supporting supports together with the narrow sides of the frames forming two end faces and together with the longitudinal sides of the frames forming two side faces of the building module , - a floor covering , a ceiling covering and/or a wall covering, - one or more supply lines that run underneath the floor covering , above the ceiling covering and/or behind the wall covering, wherein the one or more supply lines each terminate at one of the end or side faces, characterized in that the ends of the supply lines arranged on one of the end or side faces are accessible by means of inspection flaps. - a rectangular floor frame and a rectangular ceiling frame , each with two longitudinal sides and two narrow sides, - four vertical supporting supports , which connect the floor frame to the ceiling frame and are arranged at each corner of the floor and ceiling frame, the supporting supports together with the narrow sides of the frames forming two end faces and together with the longitudinal sides of the frames forming two side faces of the building module , - a floor covering , a ceiling covering and/or a wall covering, - one or more supply lines that run underneath the floor covering , above the ceiling covering and/or behind the wall covering, wherein the one or more supply lines each terminate at one of the end or side faces, characterized in that the ends of the supply lines arranged on one of the end or side faces are accessible by means of inspection flaps.
A system , comprising: a signal generator configured to generate a test signal for a frequency band, the test signal including at least two simultaneous frequency-modulated tones, the at least two simultaneous frequency-modulated tones having different frequencies within the frequency band, the test signal including an amplitude-modulated envelope including at least one of the at least two simultaneous frequency-modulated tones, the amplitude-modulated envelope causing the test signal to periodically sweep between a carrier amplitude of the amplitude-modulated envelope and a modulation amplitude of the amplitude-modulated envelope greater than the carrier amplitude; a controller configured to receive user input indicating a gain value; a multi-band compressor coupled to the signal generator and configured to adjust an amplitude of the test signal in the frequency band based on the gain value to generate an adjusted test signal; and an audio transducer coupled to the multi-band compressor and configured to generate an audio signal based on the adjusted test signal, wherein the controller is further configured to determine a distortion threshold for the frequency band based on the gain value. a signal generator configured to generate a test signal for a frequency band, the test signal including at least two simultaneous frequency-modulated tones, the at least two simultaneous frequency-modulated tones having different frequencies within the frequency band, the test signal including an amplitude-modulated envelope including at least one of the at least two simultaneous frequency-modulated tones, the amplitude-modulated envelope causing the test signal to periodically sweep between a carrier amplitude of the amplitude-modulated envelope and a modulation amplitude of the amplitude-modulated envelope greater than the carrier amplitude; a controller configured to receive user input indicating a gain value; a multi-band compressor coupled to the signal generator and configured to adjust an amplitude of the test signal in the frequency band based on the gain value to generate an adjusted test signal; and an audio transducer coupled to the multi-band compressor and configured to generate an audio signal based on the adjusted test signal, wherein the controller is further configured to determine a distortion threshold for the frequency band based on the gain value.
A weight stability control method for a deadweight force standard machine comprising a weight platform ; one or more weights connected sequentially from top to bottom and stacked on the weight platform ; a weight disk ; and one or more lifting components ; wherein a first-stage weight of the one or more weights is connected to the weight disk via the lifting components that are installed in between every two adjacent weights , characterized in that the weight stability control method comprising the following steps: S1, performing a no-load stroke in which the weight platform rapidly moves downwards from an initial position until the weight disk lifts the first-stage weight via the corresponding lifting components ; S2, performing a loaded stroke in which the weight platform starts to be slowly displaced downwards when the first-stage weight is in contact communication with the weight disk via the corresponding lifting components ; S3, after the first-stage weight is completely separated from the weight disk , rapidly displacing the weight platform downwards again until a gap between the first-stage weight and the weight disk reaches half of a pre-set gap value; and S4, repeating steps S1-S3 in the loading process of the first-stage weight for the second-stage weight all through to the n th -stage weight in sequence until all the weights are loaded. one or more weights connected sequentially from top to bottom and stacked on the weight platform ; a weight disk ; and one or more lifting components ; wherein a first-stage weight of the one or more weights is connected to the weight disk via the lifting components that are installed in between every two adjacent weights , characterized in that the weight stability control method comprising the following steps: wherein a first-stage weight of the one or more weights is connected to the weight disk via the lifting components that are installed in between every two adjacent weights , characterized in that the weight stability control method comprising the following steps: S1, performing a no-load stroke in which the weight platform rapidly moves downwards from an initial position until the weight disk lifts the first-stage weight via the corresponding lifting components ; S2, performing a loaded stroke in which the weight platform starts to be slowly displaced downwards when the first-stage weight is in contact communication with the weight disk via the corresponding lifting components ; S3, after the first-stage weight is completely separated from the weight disk , rapidly displacing the weight platform downwards again until a gap between the first-stage weight and the weight disk reaches half of a pre-set gap value; and S4, repeating steps S1-S3 in the loading process of the first-stage weight for the second-stage weight all through to the n th -stage weight in sequence until all the weights are loaded.
A method for cooling a turbine stage of a gas turbine engine comprising: removing gas from a compressor stage using a compressor bleed structure, the compressor stage having a flow path pressure greater than or equal to a minimum pressure threshold during at least one stage of operation, relative to fluid flow through the compressor during the at least one stage of operation; cooling said gas using a heat exchanger housed in an outer diameter structure of the gas turbine engine; providing at least a portion of said cooled gas to an active turbine stage cooling system of a turbine section from said heat exchanger, the turbine section including a high pressure turbine portion and a low pressure turbine portion, the active turbine stage cooling system cooling a second stage of the high pressure turbine portion relative to fluid flow through said high pressure turbine portion, wherein fluid exiting the heat exchanger does not exceed a maximum cooling temperature of the second stage of the turbine; and wherein fluid at said compressor stage has a fluid pressure in excess of the minimum pressure threshold, the minimum pressure threshold being a magnitude of pressure required to prevent backflow of a cooling fluid entering said active cooling system of said at least one turbine stage; and wherein the gas exiting said heat exchanger at said output is greater than or equal to the minimum threshold pressure during the at least one stage of operation and less than or equal to the maximum threshold temperature during the at least one stage of operation. removing gas from a compressor stage using a compressor bleed structure, the compressor stage having a flow path pressure greater than or equal to a minimum pressure threshold during at least one stage of operation, relative to fluid flow through the compressor during the at least one stage of operation; cooling said gas using a heat exchanger housed in an outer diameter structure of the gas turbine engine; providing at least a portion of said cooled gas to an active turbine stage cooling system of a turbine section from said heat exchanger, the turbine section including a high pressure turbine portion and a low pressure turbine portion, the active turbine stage cooling system cooling a second stage of the high pressure turbine portion relative to fluid flow through said high pressure turbine portion, wherein fluid exiting the heat exchanger does not exceed a maximum cooling temperature of the second stage of the turbine; and wherein fluid at said compressor stage has a fluid pressure in excess of the minimum pressure threshold, the minimum pressure threshold being a magnitude of pressure required to prevent backflow of a cooling fluid entering said active cooling system of said at least one turbine stage; and wherein the gas exiting said heat exchanger at said output is greater than or equal to the minimum threshold pressure during the at least one stage of operation and less than or equal to the maximum threshold temperature during the at least one stage of operation.