mhurhangee/ep-ind-claims huggingface dataset:
A window system for an aerospace vehicle subjected to a change in air pressure, the aerospace vehicle including a window having an air-filled cavity, the system comprising: a first path configured to allow air within the cavity of the window to vent out of the cavity; a second path configured to allow air to flow into the cavity; and a drying agent disposed within the second path; wherein moisture in the air entering the window cavity through the second path is reduced by the drying agent, the first path includes a flow control element which permits airflow out of the system and prohibits airflow into the system, and the second path includes a flow control element which permits airflow into the system and prohibits airflow out of the system. a first path configured to allow air within the cavity of the window to vent out of the cavity; a second path configured to allow air to flow into the cavity; and a drying agent disposed within the second path; wherein moisture in the air entering the window cavity through the second path is reduced by the drying agent, the first path includes a flow control element which permits airflow out of the system and prohibits airflow into the system, and the second path includes a flow control element which permits airflow into the system and prohibits airflow out of the system.
A method of rendering a material hydrophilic or increasing the hydrophilicity of a material, said method comprising the steps of: (a) providing a material comprised of at least some hydrophobic or borderline hydrophilic components, wherein said material comprises a fabric material, and wherein said fabric material comprises a nonwoven material; (b) applying a high energy surface treatment to said material to form a treated material; and (c) applying a plurality of charged particles and at least one hydrophilic polymeric material to said treated material, said hydrophilic polymeric material comprising at least one of the following: a hydrophilic polymeric material having discrete charges; or a hydrophilic polymeric material with a strong dipole moment, wherein the particles have a size from 5 μm to less than 10 μm. (a) providing a material comprised of at least some hydrophobic or borderline hydrophilic components, wherein said material comprises a fabric material, and wherein said fabric material comprises a nonwoven material; (b) applying a high energy surface treatment to said material to form a treated material; and (c) applying a plurality of charged particles and at least one hydrophilic polymeric material to said treated material, said hydrophilic polymeric material comprising at least one of the following: a hydrophilic polymeric material having discrete charges; or a hydrophilic polymeric material with a strong dipole moment, wherein the particles have a size from 5 μm to less than 10 μm.
A method for a wireless device to activate location measurements, the method comprising: accessing, at the wireless device, configuration information including one or more radio link failure criteria indicative of potential radio link failure for activating a processor for performing stand-alone location measurements; and operating the processor in accordance with the configuration information to perform stand-alone location measurement. accessing, at the wireless device, configuration information including one or more radio link failure criteria indicative of potential radio link failure for activating a processor for performing stand-alone location measurements; and operating the processor in accordance with the configuration information to perform stand-alone location measurement.
A process for distillation of a hydrocarbon stream at vacuum comprising i) passing a hydrocarbon stream, which is a residue stream leaving a crude distillation unit, and having an initial boiling point of at least 230°C and less than 500 °C, into a preflash vessel maintained under conditions to separate the hydrocarbon stream into a preflash liquid and a preflash vapor, the pressure being in the range from 0.1 bara to 0.8 bara and the temperature being between 340 °C and 360 °C, ii) passing the preflash liquid into a vacuum furnace maintained under conditions to heat and partly vaporize the preflash liquid, iii) passing the heated furnace effluent into a zone located in a lower part of a vacuum distillation column maintained under fractionating conditions, and iv) passing the preflash vapor into the vacuum distillation column into a further zone located in a lower part of the vacuum distillation column, wherein the further zone for introduction of the preflash vapor is located at the bottom of a stripping zone being located below the zone for introduction of the furnace effluent, such that the residue of the furnace effluent is contacted with preflash vapor in the stripping zone under conditions to strip the residue, wherein the preflash vapor is used for stripping the furnace effluent in the vacuum column, while completely abolishing steam as stripping medium.
A solution having an inverted micelle sulfonated block copolymer composition comprising: at least one sulfonated block copolymer having at least one end block A and at least one interior block B wherein each A block contains essentially no sulfonic acid or sulfonate ester functional groups and each B block is a polymer block containing from 10 to 100 mol% sulfonic acid or sulfonate ester functional groups based on the number of sulfonation susceptible monomer units of the B block, said sulfonated block copolymer being dissolved in an aprotic polar solvent, wherein the aprotic polar solvent is a compound containing at least one nitrogen atom preferably at a polymer concentration within the range of from 1 %-wt. to 30%-wt, and wherein the sulfonated block copolymer is arranged in an inverted micelle structure having the sulfonic acid or sulfonate ester segments of the sulfonated block copolymer on the exterior of said micelle structure and the non-polar segments of the sulfonated block copolymer on the interior of said micelle structure, wherein the concentration of the sulfonated block copolymer in the solution is less than 15wt% at least one sulfonated block copolymer having at least one end block A and at least one interior block B wherein each A block contains essentially no sulfonic acid or sulfonate ester functional groups and each B block is a polymer block containing from 10 to 100 mol% sulfonic acid or sulfonate ester functional groups based on the number of sulfonation susceptible monomer units of the B block, said sulfonated block copolymer being dissolved in an aprotic polar solvent, wherein the aprotic polar solvent is a compound containing at least one nitrogen atom preferably at a polymer concentration within the range of from 1 %-wt. to 30%-wt, and wherein the sulfonated block copolymer is arranged in an inverted micelle structure having the sulfonic acid or sulfonate ester segments of the sulfonated block copolymer on the exterior of said micelle structure and the non-polar segments of the sulfonated block copolymer on the interior of said micelle structure,
A cooler arrangement for connection to an exhaust gas manifold or to an exhaust gas outlet of an engine block of an internal combustion machine, comprising: an exhaust gas cooler comprising an exhaust gas duct and a coolant jacket, the exhaust gas cooler being mounted at the engine block or at the exhaust gas manifold via a pre-cooler, an exhaust gas recirculation valve by which an exhaust gas flow can be regulated, and an actuator via which the exhaust gas recirculation valve can be actuated and which is arranged on the side of the exhaust gas recirculation valve opposite the exhaust gas cooler, characterized in that a coolant duct segment is arranged between the exhaust gas manifold or the engine block and the actuator of the exhaust gas recirculation valve, the coolant duct segment being fluidically connected to the coolant jacket, wherein the pre-cooler is arranged between the exhaust gas cooler and the exhaust gas manifold, as seen in the flow direction of the exhaust gas, at least one coolant duct (42, 44) being formed in the pre-cooler housing, via which the coolant duct segment formed in the pre-cooler housing is connected with the coolant jacket of the exhaust gas cooler. an exhaust gas cooler comprising an exhaust gas duct and a coolant jacket, the exhaust gas cooler being mounted at the engine block or at the exhaust gas manifold via a pre-cooler, an exhaust gas recirculation valve by which an exhaust gas flow can be regulated, and an actuator via which the exhaust gas recirculation valve can be actuated and which is arranged on the side of the exhaust gas recirculation valve opposite the exhaust gas cooler, characterized in that a coolant duct segment is arranged between the exhaust gas manifold or the engine block and the actuator of the exhaust gas recirculation valve, the coolant duct segment being fluidically connected to the coolant jacket, wherein the pre-cooler is arranged between the exhaust gas cooler and the exhaust gas manifold, as seen in the flow direction of the exhaust gas, at least one coolant duct (42, 44) being formed in the pre-cooler housing, via which the coolant duct segment formed in the pre-cooler housing is connected with the coolant jacket of the exhaust gas cooler.
A blade transport dolly for towing a blade for a wind energy plant, wherein the blade transport dolly at least includes a chassis with a front end and a rear end, wherein at or in the immediate vicinity of the front end of the blade transport dolly there is arranged a coupling device for coupling the blade transport dolly to a towing vehicle, where the blade transport dolly further includes a rear end for coupling to the blade to be towed, and a number of wheel axles with wheels arranged at the front end, at the rear end, or between the ends, respectively, that the blade transport dolly at its rear end includes at least one rearwardly directed coupling means adapted with securing means for lockable coupling to a corresponding coupling part on a lift beam or a blade of the type which the blade transport dolly is adapted to tow, characterised in that the blade transport dolly, at the front end of the blade transport dolly chassis, comprises a counterweight, said counterweight comprising a container filled with ballast, e.g. concrete or other suitable ballast or where said ballast is constituted by steel items, concrete items or other means with sufficient weight.
A non-oriented electrical steel sheet, comprising: Si at 2.0 to 4.0 wt%, Al at 1.5 wt% or less excluding 0 wt%, Mn at 1.5 wt% or less excluding 0 wt%, Cr at 0.02 to 0.5 wt%, V at 0.0080 to 0.015 wt%, C at 0.015 wt% or less excluding 0 wt%, N at 0.015 wt% or less excluding 0 wt%, and the remainder of Fe and other impurities unavoidably added thereto, and satisfying Equation 1 below, wherein the steel sheet optionally comprises at least one of S at 0.005 wt% or less excluding 0 wt%, Ti at 0.005 wt% or less excluding 0 wt%, Nb at 0.005 wt% or less excluding 0 wt%, Cu at 0.025 wt% or less excluding 0 wt%, B at 0.001 wt% or less excluding 0 wt%, Mg at 0.005 wt% or less excluding 0 wt%, and Zr at 0.005 wt% or less excluding 0 wt% as said impurities, wherein grains having a crystal orientation with respect to a cross-section of a steel sheet including the entire thickness layer by an area of 15 mm 2 or more that is within 15 degrees from <uvw> are included at 35 % or more, wherein the orientation fraction is measured 10 times by EBSD with respect to a transverse direction cross-section of a steel sheet using the area of 350 μm × 5000 μm and the 2 μm step interval without overlapping and then calculated as the orientation fraction within the error range of 15 degrees by merging the measured data, 0.004 ≤ C + N ≤ 0.022, wherein in Equation 1, and represent a content of C and N in wt%, respectively. Si at 2.0 to 4.0 wt%, Al at 1.5 wt% or less excluding 0 wt%, Mn at 1.5 wt% or less excluding 0 wt%, Cr at 0.02 to 0.5 wt%, V at 0.0080 to 0.015 wt%, C at 0.015 wt% or less excluding 0 wt%, N at 0.015 wt% or less excluding 0 wt%, and the remainder of Fe and other impurities unavoidably added thereto, and satisfying Equation 1 below, wherein the steel sheet optionally comprises at least one of S at 0.005 wt% or less excluding 0 wt%, Ti at 0.005 wt% or less excluding 0 wt%, Nb at 0.005 wt% or less excluding 0 wt%, Cu at 0.025 wt% or less excluding 0 wt%, B at 0.001 wt% or less excluding 0 wt%, Mg at 0.005 wt% or less excluding 0 wt%, and Zr at 0.005 wt% or less excluding 0 wt% as said impurities, wherein grains having a crystal orientation with respect to a cross-section of a steel sheet including the entire thickness layer by an area of 15 mm 2 or more that is within 15 degrees from <uvw> are included at 35 % or more, wherein the orientation fraction is measured 10 times by EBSD with respect to a transverse direction cross-section of a steel sheet using the area of 350 μm × 5000 μm and the 2 μm step interval without overlapping and then calculated as the orientation fraction within the error range of 15 degrees by merging the measured data, 0.004 ≤ C + N ≤ 0.022, wherein in Equation 1, and represent a content of C and N in wt%, respectively.
A method for graphically representing a three-dimensional synthetic view of the outside landscape in an on-board display system for aircraft, said graphical representation being displayed on a display screen comprising the piloting and/or navigation information for said aircraft superimposed on said three-dimensional synthetic representation of the outside landscape, said synthetic representation being computed up to a first determined distance (RSVS), said three-dimensional synthetic representation being tilted by a tilt angle ( θ) around an axis disposed at ground level in a plane substantially horizontal and substantially perpendicular to an axis between the flight direction and the heading of the aircraft, said axis moving with the aircraft, the method being characterised in that said tilt angle is computed so that the angle between a line of horizon or "ZPRL" and the limit of the synthetic representation computed up to a first determined distance is limited to 3 degrees.
A method comprising: receiving, by an audio/video bridging, AVB, enabled network device (104/204A-C/300), multiple audio and/or video streams from multiple AVB enabled devices (102A-N/202A-L), wherein each of the multiple AVB enabled devices (102A-N/202A-L) has a static priority based on criticality of an application that each of the multiple AVB enabled devices (102A-N/202A-L) is performing: dynamically queuing, by the AVB enabled network device (104/204A-C/300), each of the multiple audio and/or video streams based on the static priority of the associated one of the multiple AVB enabled devices (102A-N/202A-L); after having queued the multiple audio and/or video streams, receiving, by the AVB enabled network device (104/204A-C/300), new audio and/or video streams from one or more of the multiple AVB enabled devices (102A-N/202A-L) the method being characterised by: upon receiving the new audio and/or video streams, dynamically re-scheduling, by the AVB enabled network device (104/204A-C/300), the multiple audio and/or video streams; and enabling real-time transfer of the dynamically re-scheduled audio and/or video streams, by the AVB enabled network device (104/204A-C/300), to a user device through an Ethernet AVB network upon queuing and re-scheduling the audio and/or video streams. dynamically queuing, by the AVB enabled network device (104/204A-C/300), each of the multiple audio and/or video streams based on the static priority of the associated one of the multiple AVB enabled devices (102A-N/202A-L); after having queued the multiple audio and/or video streams, receiving, by the AVB enabled network device (104/204A-C/300), new audio and/or video streams from one or more of the multiple AVB enabled devices (102A-N/202A-L) upon receiving the new audio and/or video streams, dynamically re-scheduling, by the AVB enabled network device (104/204A-C/300), the multiple audio and/or video streams; and enabling real-time transfer of the dynamically re-scheduled audio and/or video streams, by the AVB enabled network device (104/204A-C/300), to a user device through an Ethernet AVB network upon queuing and re-scheduling the audio and/or video streams.
A process of preparation of a leaf tea product with black tea characteristics comprising the steps of: a. incubating fresh tea leaf at a temperature in the range 4°C to 60°C under anaerobic conditions for a period of 4 to 50 hours; b. creating micropores having diameter in the range of 5 to 100 μm on the incubated leaf; c. exposing the leaf to a temperature of 15 to 35°C for 15 minutes to 4 hours. a. incubating fresh tea leaf at a temperature in the range 4°C to 60°C under anaerobic conditions for a period of 4 to 50 hours; b. creating micropores having diameter in the range of 5 to 100 μm on the incubated leaf; c. exposing the leaf to a temperature of 15 to 35°C for 15 minutes to 4 hours.
A method for producing high yield recombinant lentivirus (rLV) comprising a therapeutically beneficial transgene, comprising the steps: a) transfecting host cells with plasmids encoding the necessary components for rLV production with a calcium phosphate transfection mix, wherein for the transfection said calcium phosphate and said plasmids are mixed at a uniform constant speed thereby forming a complex, followed by said complex being added to said cells in a media; b) incubating said transfected host cells in step a) in the media for a time period wherein the rLV particle media is produced and thereafter the media comprising the rLV particle is collected at least twice during the period up to 60 hours after transfection, and placing said collected rLV media in a cold storage unit, resulting in reduced virus inactivation; c) concentrating the rLV particles in said collected media from step b) via tangential flow filtration; d) treating the concentrated rLV particles from step c) with an enzyme which reduces nucleic acid contamination; e) centrifuging the treated rLV particles of step d) to further concentrate said rLV and resuspending the centrifuged rLV in a solution containing a surfactant; and f) layering the rLV in the surfactant solution of step e) over a sucrose gradient followed by further centrifuging, thereby producing high yield rLV. a) transfecting host cells with plasmids encoding the necessary components for rLV production with a calcium phosphate transfection mix, wherein for the transfection said calcium phosphate and said plasmids are mixed at a uniform constant speed thereby forming a complex, followed by said complex being added to said cells in a media; b) incubating said transfected host cells in step a) in the media for a time period wherein the rLV particle media is produced and thereafter the media comprising the rLV particle is collected at least twice during the period up to 60 hours after transfection, and placing said collected rLV media in a cold storage unit, resulting in reduced virus inactivation; c) concentrating the rLV particles in said collected media from step b) via tangential flow filtration; d) treating the concentrated rLV particles from step c) with an enzyme which reduces nucleic acid contamination; e) centrifuging the treated rLV particles of step d) to further concentrate said rLV and resuspending the centrifuged rLV in a solution containing a surfactant; and f) layering the rLV in the surfactant solution of step e) over a sucrose gradient followed by further centrifuging, thereby producing high yield rLV.
A steering axle assembly comprising: a housing having a wheel bearing; a wheel axle that is rotatably supported in the wheel bearing for rotation about a wheel rotation axis; a pivot assembly for pivoting the housing about a housing pivot axis that is transverse to the wheel rotation axis, the pivot assembly comprising first and second swivel pins (122, 124) for pivotally mounting within first and second pivot bearings (132, 134); a brake mechanism having an assembly of members mounted on and around the wheel axle and further having an actuator for causing mutual engagement between the members to brake rotation of the wheel axle about the wheel rotation axis, wherein the actuator comprises a moveable actuation element moveably mounted within or through the first swivel pin. a housing having a wheel bearing; a wheel axle that is rotatably supported in the wheel bearing for rotation about a wheel rotation axis; a pivot assembly for pivoting the housing about a housing pivot axis that is transverse to the wheel rotation axis, the pivot assembly comprising first and second swivel pins (122, 124) for pivotally mounting within first and second pivot bearings (132, 134); a brake mechanism having an assembly of members mounted on and around the wheel axle and further having an actuator for causing mutual engagement between the members to brake rotation of the wheel axle about the wheel rotation axis, wherein the actuator comprises a moveable actuation element moveably mounted within or through the first swivel pin.
A system for packaging a dry tissue heart valve and its delivery system, comprising: a dry tissue heart valve coupled to its valve delivery system (22, 212, 142), wherein the delivery system provides gas flow passages for gas flow in and out of its various components; a primary container sized to receive the dry tissue heart valve coupled to its delivery system, the primary container having a gas-permeable barrier which presents a sterile barrier and prevents ingress of microorganisms; and a secondary container sized to receive the primary container, the secondary container made of a gas-impermeable material and comprising a gas-permeable seal or barrier and an oxygen barrier which makes the secondary container gas-impermeable. a dry tissue heart valve coupled to its valve delivery system (22, 212, 142), wherein the delivery system provides gas flow passages for gas flow in and out of its various components; a primary container sized to receive the dry tissue heart valve coupled to its delivery system, the primary container having a gas-permeable barrier which presents a sterile barrier and prevents ingress of microorganisms; and a secondary container sized to receive the primary container, the secondary container made of a gas-impermeable material and comprising a gas-permeable seal or barrier and an oxygen barrier which makes the secondary container gas-impermeable.