mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic energy-transfer system comprising: a plurality of acoustic chests stacked longitudinally to form a substantially cylindrically or polygonal shaped dryer and a container , wherein each of the acoustic chests is an annular ring to which an air inlet is connected and defines one or more acoustic slots , and wherein ultrasonic transducers define said acoustic slots , wherein the acoustic slots are extending around the full circumference of the dryer or the acoustic slots extend a distance less the full circumference of the dryer , and wherein the container has the shape of a tunnel, where the tunnel extends along a central axis and the container has an inner chamber defined by a container wall, and wherein the system is configured in such a way that material is transported from a material inlet of the container to a material outlet distal the material inlet in a transport direction, and wherein at least one acoustic chest of the plurality of acoustic chests is capable of producing acoustically energized air for drying of the material , wherein the material is enclosed within the inner chamber of the acoustic chest , and wherein the one or more acoustic slots are defined in planes oblique or are angled at 90 degrees with respect to the central axis of the acoustic chest in the cylindrically or polygonal shaped inner chamber of the acoustic chest . a plurality of acoustic chests stacked longitudinally to form a substantially cylindrically or polygonal shaped dryer and a container , wherein each of the acoustic chests is an annular ring to which an air inlet is connected and defines one or more acoustic slots , and wherein ultrasonic transducers define said acoustic slots , wherein the acoustic slots are extending around the full circumference of the dryer or the acoustic slots extend a distance less the full circumference of the dryer , and wherein the container has the shape of a tunnel, where the tunnel extends along a central axis and the container has an inner chamber defined by a container wall, and wherein the system is configured in such a way that material is transported from a material inlet of the container to a material outlet distal the material inlet in a transport direction, and wherein at least one acoustic chest of the plurality of acoustic chests is capable of producing acoustically energized air for drying of the material , wherein the material is enclosed within the inner chamber of the acoustic chest , and wherein the one or more acoustic slots are defined in planes oblique or are angled at 90 degrees with respect to the central axis of the acoustic chest in the cylindrically or polygonal shaped inner chamber of the acoustic chest .
An electronic control device , comprising: a housing which comprises a plurality of members and of which a peripheral portion is configured by a plurality of sides (60a to 60d); a circuit board which is accommodated in an inside of the housing ; and a seal structure which is disposed on the peripheral portion along the sides (60a to 60d), wherein a liquid seal material is applied to the seal structure and cured so as to connect between the plurality of members , and wherein a seal sectional area in an end portion of a side (60a to 60d) is smaller than that in a central portion of the side (60a to 60d) in the seal structure which is disposed on the side (60a to 60d) of the peripheral portion. a housing which comprises a plurality of members and of which a peripheral portion is configured by a plurality of sides (60a to 60d); a circuit board which is accommodated in an inside of the housing ; and a seal structure which is disposed on the peripheral portion along the sides (60a to 60d), wherein a liquid seal material is applied to the seal structure and cured so as to connect between the plurality of members , and wherein a seal sectional area in an end portion of a side (60a to 60d) is smaller than that in a central portion of the side (60a to 60d) in the seal structure which is disposed on the side (60a to 60d) of the peripheral portion.
A wire clamp for use in an electrical terminal crimping system, the wire clamp comprising: a base including a first upright portion and a second upright portion , the base including a cavity defined between the first and second upright portions; and a pair of first and second jaws mounted to the base and extending into the cavity, the first jaw pivotally mounted to the first upright portion via a first pivot axle , the second jaw pivotally mounted to the second upright portion via a second pivot axle that is spaced apart laterally from the first pivot axle, the first and second jaws each including a respective hook member , the first and second jaws crisscrossing each other at an overlap area , the hook members of the first and second jaws defining a mouth therebetween that is configured to receive a wire , the mouth located above the overlap area, wherein the first and second jaws are spring-biased to pivot relative to the base from an open position towards a closed position, and wherein a size of the mouth adjusts automatically to a size of the wire within the mouth when the first and second jaws are allowed to pivot towards the closed position, characterised in that , the first jaw is connected to the second jaw via a link that is disposed between and connects the two jaws, wherein pivoting of the first jaw relative to the base causes the second jaw to pivot relative to the base via the link. a base including a first upright portion and a second upright portion , the base including a cavity defined between the first and second upright portions; and a pair of first and second jaws mounted to the base and extending into the cavity, the first jaw pivotally mounted to the first upright portion via a first pivot axle , the second jaw pivotally mounted to the second upright portion via a second pivot axle that is spaced apart laterally from the first pivot axle, the first and second jaws each including a respective hook member , the first and second jaws crisscrossing each other at an overlap area , the hook members of the first and second jaws defining a mouth therebetween that is configured to receive a wire , the mouth located above the overlap area, wherein the first and second jaws are spring-biased to pivot relative to the base from an open position towards a closed position, and wherein a size of the mouth adjusts automatically to a size of the wire within the mouth when the first and second jaws are allowed to pivot towards the closed position, characterised in that , the first jaw is connected to the second jaw via a link that is disposed between and connects the two jaws, wherein pivoting of the first jaw relative to the base causes the second jaw to pivot relative to the base via the link.
A resin container comprising: a main body inside which is formed an accommodating space configured to be hermetically sealed using a cap ; and a textured region on an inner surface of a bottom portion of the main body formed from a rough surface; wherein the rough surface is formed by means of fine irregularities; and characterized in that the textured region has an arithmetic mean roughness (Ra) of between 0.8 and 7.0, a ten-point mean roughness (Rz) of between 4 and 25, and a mean spacing (Rsm) of between 100 and 500. a main body inside which is formed an accommodating space configured to be hermetically sealed using a cap ; and a textured region on an inner surface of a bottom portion of the main body formed from a rough surface; wherein the rough surface is formed by means of fine irregularities; and characterized in that the textured region has an arithmetic mean roughness (Ra) of between 0.8 and 7.0, a ten-point mean roughness (Rz) of between 4 and 25, and a mean spacing (Rsm) of between 100 and 500.
A method of operating an injection system of a motor vehicle, said method comprising the following steps: determining the angular start (SOI) and duration (TI) of several injection pulses within an injection window; carrying out corrections with the determined values by a collision management (CM) rule based mechanism upon conflicts between the injections pulses by shifting and/or removing pulses; when doing this, evaluating at every step the applied angular start of injection (SOI) corrections for each pulse with respect to pressure wave influences upon following injection pulses within the injection window; and recalculating the duration (TI) for following injection pulses on the basis of this evaluation, in order for the injection system to deliver the requested fuel mass for each injection pulse, wherein the carried out evaluation consists of comparing the applied angular start of injection (SOI) corrections with a minimal threshold above which a carried out correction has a hydraulic influence on following injection pulses and recalculating the duration (TI) for following injection pulses if the result of the comparison lies above the threshold. determining the angular start (SOI) and duration (TI) of several injection pulses within an injection window; carrying out corrections with the determined values by a collision management (CM) rule based mechanism upon conflicts between the injections pulses by shifting and/or removing pulses; when doing this, evaluating at every step the applied angular start of injection (SOI) corrections for each pulse with respect to pressure wave influences upon following injection pulses within the injection window; and recalculating the duration (TI) for following injection pulses on the basis of this evaluation, in order for the injection system to deliver the requested fuel mass for each injection pulse, wherein the carried out evaluation consists of comparing the applied angular start of injection (SOI) corrections with a minimal threshold above which a carried out correction has a hydraulic influence on following injection pulses and recalculating the duration (TI) for following injection pulses if the result of the comparison lies above the threshold.
A system for robust constraints handling for a vehicle having an engine with one or more subsystems associated with the engine, comprising: a mechanism configured to measure disturbance variables of the one or more subsystems, wherein the measured disturbance variables are selected from a group comprising vehicle speeds, a pedal position of fuel control by a driver, a driver torque request, a driver's aggressive tip-ins, sudden vehicle accelerations, exhaust gas flow and ambient conditions; a sensor subsystem configured to collect information about uncertainties of the measured disturbance variables; and a model predictive controller configured to: provide model predictive control for the one or more subsystems; obtain information about the uncertainties of the measured disturbance variables; maintain controlled variables of the one or more subsystems within prescribed limits; estimate a worst case prediction of system uncertainty over a prediction horizon based on the uncertainties of the measured disturbance variables; and wherein the model predictive controller further comprises an algorithm configured to approximate uncertainties of the measured disturbance variables on the prediction horizon , and wherein the algorithm is configured to reduce a range between prescribed limits on the measured disturbance variables over the prediction horizon based on the worst case prediction which decreases a probability of exceeding the original prescribed limits. provide model predictive control for the one or more subsystems; obtain information about the uncertainties of the measured disturbance variables; maintain controlled variables of the one or more subsystems within prescribed limits; estimate a worst case prediction of system uncertainty over a prediction horizon based on the uncertainties of the measured disturbance variables; and wherein the model predictive controller further comprises an algorithm configured to approximate uncertainties of the measured disturbance variables on the prediction horizon , and wherein the algorithm is configured to reduce a range between prescribed limits on the measured disturbance variables over the prediction horizon based on the worst case prediction which decreases a probability of exceeding the original prescribed limits.
A composition comprising (a) okara, and (b) a fiber-containing pectin product, wherein the weight ratio between components (a) and (b) is from 4: 1 to 6 : 1. (a) okara, and (b) a fiber-containing pectin product, wherein the weight ratio between components (a) and (b) is from 4: 1 to 6 : 1.
A backlight comprising: a light guide configured to guide light along a length of the light guide as guided light, the light guide having an angle-preserving scattering feature configured to scatter a portion of the guided light out of the light guide as emitted light; and a grating spreader between a light source configured to provide light to the light guide and the angle-preserving scattering feature of the light guide, the grating spreader comprising a diffraction grating having diffractive features that extend in a propagation direction of the guided light within the light guide, wherein the grating spreader is configured to convert the light provided by the light source into spatio-angularly homogenous light within the light guide to facilitate uniform illumination of the backlight; and wherein the diffraction grating of the grating spreader comprises a reflection mode diffraction grating, wherein the reflection mode diffraction grating comprises a grating layer having the diffractive features and a reflective layer, the grating layer being between the light guide and the reflective layer. a light guide configured to guide light along a length of the light guide as guided light, the light guide having an angle-preserving scattering feature configured to scatter a portion of the guided light out of the light guide as emitted light; and a grating spreader between a light source configured to provide light to the light guide and the angle-preserving scattering feature of the light guide, the grating spreader comprising a diffraction grating having diffractive features that extend in a propagation direction of the guided light within the light guide, wherein the grating spreader is configured to convert the light provided by the light source into spatio-angularly homogenous light within the light guide to facilitate uniform illumination of the backlight; and wherein the diffraction grating of the grating spreader comprises a reflection mode diffraction grating, wherein the reflection mode diffraction grating comprises a grating layer having the diffractive features and a reflective layer, the grating layer being between the light guide and the reflective layer.
A control node which is used in connection with a core network , the control node comprising: at least one memory; and at least one processor coupled to the at least one memory and configured to transmit a relocation command message (S12) related to a first control-plane node that is located in the core network and performs mobility management and bearer management (S11) of a plurality of mobile terminals having attached to the core network , wherein the relocation command message (S12) causes relocation (S13), from the first control-plane node to at least one second control-plane node , of the mobility management and the bearer management for at least one of the plurality of mobile terminals , regardless of the movement of the at least one of the mobile terminals, wherein the relocation command message (S12) contains a relocation policy, and the relocation policy contains an identifier of the at least one second control-plane node . at least one memory; and at least one processor coupled to the at least one memory and configured to transmit a relocation command message (S12) related to a first control-plane node that is located in the core network and performs mobility management and bearer management (S11) of a plurality of mobile terminals having attached to the core network , wherein the relocation command message (S12) causes relocation (S13), from the first control-plane node to at least one second control-plane node , of the mobility management and the bearer management for at least one of the plurality of mobile terminals , regardless of the movement of the at least one of the mobile terminals, wherein the relocation command message (S12) contains a relocation policy, and the relocation policy contains an identifier of the at least one second control-plane node .
A connecting joint for attaching a wind turbine rotor blade to a rotor hub comprising an insert configured to be coupled to the wind turbine blade , the insert comprising: a main body having a first end and a second end, a central bore open to the first end and extending toward the second end, and an outer surface configured to interface with the blade; a first tubular extension extending away from the second end of the main body and having an inner surface and an outer surface , each of the inner and outer surfaces configured to interface with the blade ; and characterised by a second tubular extension extending away from the main body and having an inner surface and an outer surface , each of the inner and outer surfaces configured to interface with the blade . a main body having a first end and a second end, a central bore open to the first end and extending toward the second end, and an outer surface configured to interface with the blade; a first tubular extension extending away from the second end of the main body and having an inner surface and an outer surface , each of the inner and outer surfaces configured to interface with the blade ; and characterised by a second tubular extension extending away from the main body and having an inner surface and an outer surface , each of the inner and outer surfaces configured to interface with the blade .
A storage device , comprising: first storage , including: a primary firmware slot to store a first firmware; a secondary firmware slot to store a second firmware; a primary file system slot to store an existing file system; a secondary file system slot ; a processor configured to execute the first firmware or the second firmware; and second storage for user data, the second storage configured to use the existing file system, wherein the second firmware includes a tag indicating that the second firmware is subject to activation at a subsequent bootup, wherein the storage device is configured to activate the second firmware at the subsequent bootup, wherein the storage device is configured to unify the second firmware and the first firmware in the storage device , wherein unifying the second firmware and the first firmware in the storage device includes: a) copying the second firmware from the secondary firmware slot into the primary firmware slot based on successful activation of the second firmware; and b) copying the first firmware from the primary firmware slot into the secondary firmware slot based on unsuccessful activation of the second firmware. first storage , including: a primary firmware slot to store a first firmware; a secondary firmware slot to store a second firmware; a primary file system slot to store an existing file system; a secondary file system slot ; a primary firmware slot to store a first firmware; a secondary firmware slot to store a second firmware; a primary file system slot to store an existing file system; a secondary file system slot ; a processor configured to execute the first firmware or the second firmware; and second storage for user data, the second storage configured to use the existing file system, wherein the second firmware includes a tag indicating that the second firmware is subject to activation at a subsequent bootup, wherein the storage device is configured to activate the second firmware at the subsequent bootup, wherein the storage device is configured to unify the second firmware and the first firmware in the storage device , wherein unifying the second firmware and the first firmware in the storage device includes: a) copying the second firmware from the secondary firmware slot into the primary firmware slot based on successful activation of the second firmware; and b) copying the first firmware from the primary firmware slot into the secondary firmware slot based on unsuccessful activation of the second firmware. a) copying the second firmware from the secondary firmware slot into the primary firmware slot based on successful activation of the second firmware; and b) copying the first firmware from the primary firmware slot into the secondary firmware slot based on unsuccessful activation of the second firmware.
An ophthalmic composition comprising an active pharmaceutical ingredient in an amount sufficient to contribute to the treatment, prevention or reduction of a symptom or symptoms of an ophthalmic disease or condition; macrogol 15 hydroxystearate; and benzalkonium chloride at a concentration of 10 to 200 ppm.
An assembly comprising a coaxial cable and a connector mounted on the coaxial cable , wherein the coaxial cable comprises at least one metal braid layer surrounding inner parts of the cable, an outer insulating layer surrounding said at least one metal braid layer and a silicone sleeve arranged around the outer insulating layer; wherein the connector comprises - a ferrule arranged in electrical contact with said at least one metal braid layer , wherein said outer insulating layer of the cable is stripped away for the length of said electrical contact, - a base arranged cylindrically around said ferrule, and - a collar arranged at least partially within said base and comprising a body configurable around the ferrule , wherein the body of the collar has a first outer diameter substantially the same as the diameter of the outer insulating layer of the coaxial cable; and the silicone sleeve is arranged between the base and the body of the collar for applying a pressure force to said at least one metal braid layer of the coaxial cable guided to an outer surface of the collar, characterized in that a front end of the silicone sleeve is provided with an edge extending inwards. wherein the coaxial cable comprises at least one metal braid layer surrounding inner parts of the cable, an outer insulating layer surrounding said at least one metal braid layer and a silicone sleeve arranged around the outer insulating layer; wherein the connector comprises - a ferrule arranged in electrical contact with said at least one metal braid layer , wherein said outer insulating layer of the cable is stripped away for the length of said electrical contact, - a base arranged cylindrically around said ferrule, and - a collar arranged at least partially within said base and comprising a body configurable around the ferrule , wherein the body of the collar has a first outer diameter substantially the same as the diameter of the outer insulating layer of the coaxial cable; and the silicone sleeve is arranged between the base and the body of the collar for applying a pressure force to said at least one metal braid layer of the coaxial cable guided to an outer surface of the collar, characterized in that - a ferrule arranged in electrical contact with said at least one metal braid layer , wherein said outer insulating layer of the cable is stripped away for the length of said electrical contact, - a base arranged cylindrically around said ferrule, and - a collar arranged at least partially within said base and comprising a body configurable around the ferrule , wherein the body of the collar has a first outer diameter substantially the same as the diameter of the outer insulating layer of the coaxial cable; and a front end of the silicone sleeve is provided with an edge extending inwards.
Emulsion for parenteral administration comprising 0.1 to 10 wt.%, preferably 1 to 5 wt.%, propofol and 5 to 25 wt.%, preferably 10 to 20 wt.%, of an oil phase based on the total weight of the emulsion, wherein the free propofol concentration in the aqueous phase is below 0.1 % of the total propofol content and wherein the oil phase comprises fish oil, fish oil extract or a mixture of fish oil, olive oil, soybean oil and medium chain triglycerides (MCT).