mhurhangee/patent-ind-claim-en huggingface dataset:
An intercooled cooling air system (100;200;300) for a gas turbine engine , the intercooled cooling system comprising: a first duct wall configured to isolate a main bypass stream from a secondary bypass stream of the gas turbine engine; a second duct wall configured to isolate the secondary bypass stream from a third bypass stream of the gas turbine engine, wherein the third bypass stream is defined between the second duct wall and a casing of the gas turbine engine; a plurality of cooling stages (110,115;210,215;310,315) in fluid communication with an air stream of the secondary bypass stream utilized by the plurality of cooling stages for cooling, wherein a first cooling stage (110;210;310) of the plurality of cooling stages is fluidly coupled to a bleed port of a compressor of the gas turbine engine to receive bleed air and cool the bleed air with the air stream to produce a cool bleed air; and a pump fluidly coupled to the first cooling stage (110;210;310) to receive the cool bleed air and increase a pressure of the cool bleed air to produce a pressurized cool bleed air, wherein a second cooling stage (115;215;315) of the plurality of cooling stages is fluidly coupled to the pump to receive the pressurized cool bleed air and cool the pressurized cool bleed air to produce an intercooled cooling air, wherein the second cooling stage (115;215;315) provides the intercooled cooling air to a port located downstream of a combustor section of the gas turbine engine and located at or near an intake of a turbine section of the gas turbine engine. a first duct wall configured to isolate a main bypass stream from a secondary bypass stream of the gas turbine engine; a second duct wall configured to isolate the secondary bypass stream from a third bypass stream of the gas turbine engine, wherein the third bypass stream is defined between the second duct wall and a casing of the gas turbine engine; a plurality of cooling stages (110,115;210,215;310,315) in fluid communication with an air stream of the secondary bypass stream utilized by the plurality of cooling stages for cooling, wherein a first cooling stage (110;210;310) of the plurality of cooling stages is fluidly coupled to a bleed port of a compressor of the gas turbine engine to receive bleed air and cool the bleed air with the air stream to produce a cool bleed air; and a pump fluidly coupled to the first cooling stage (110;210;310) to receive the cool bleed air and increase a pressure of the cool bleed air to produce a pressurized cool bleed air, wherein a second cooling stage (115;215;315) of the plurality of cooling stages is fluidly coupled to the pump to receive the pressurized cool bleed air and cool the pressurized cool bleed air to produce an intercooled cooling air, wherein the second cooling stage (115;215;315) provides the intercooled cooling air to a port located downstream of a combustor section of the gas turbine engine and located at or near an intake of a turbine section of the gas turbine engine.
A di-PEGylated conjugate comprising two poly(ethylene glycol)s covalently attached to a butyrylcholinesterase dimer derived from two separate butyrylcholinesterase monomers, each butyrylcholinesterase monomer having one poly(ethylene glycol) covalently attached to cysteine residue Cys66.
An aerodynamic control surface assembly comprising: a structure with an aerodynamic surface ; an aerodynamic control surface having a height dimension (H) and configured to move between an extended and a retracted position , wherein the aerodynamic control surface has a curved profile in the height dimension; an actuation mechanism coupled to the aerodynamic control surface and configured to move the aerodynamic control surface between the extended and retracted positions, wherein the aerodynamic control surface is arranged to deploy through an aperture in the aerodynamic surface and into an oncoming airflow (A) over the aerodynamic surface when in the extended position and is arranged to retract out of the airflow when in the retracted position, wherein the actuation mechanism is configured such that the control surface follows a curved kinematic path as the control surface moves between the extended and retracted positions, wherein the actuation mechanism remains fully behind the aerodynamic surface throughout the movement of the aerodynamic control surface between the extended and retracted positions, and characterised in that the curved kinematic path has variable radii along the path length. a structure with an aerodynamic surface ; an aerodynamic control surface having a height dimension (H) and configured to move between an extended and a retracted position , wherein the aerodynamic control surface has a curved profile in the height dimension; an actuation mechanism coupled to the aerodynamic control surface and configured to move the aerodynamic control surface between the extended and retracted positions, wherein the aerodynamic control surface is arranged to deploy through an aperture in the aerodynamic surface and into an oncoming airflow (A) over the aerodynamic surface when in the extended position and is arranged to retract out of the airflow when in the retracted position, wherein the actuation mechanism is configured such that the control surface follows a curved kinematic path as the control surface moves between the extended and retracted positions, wherein the actuation mechanism remains fully behind the aerodynamic surface throughout the movement of the aerodynamic control surface between the extended and retracted positions, and characterised in that the curved kinematic path has variable radii along the path length.
A delivery apparatus for delivering a stent-valve for implantation within the body, the delivery apparatus configured for introduction into the body through an arterial introducer of a type having a stem insertable into the body and a mouth section that remains outside the body, the mouth section including a haemostasis valve , and wherein the delivery apparatus comprises: a first constraining sheath at a stent-valve accommodation region of the apparatus at a distal end of the apparatus, and configured for constraining at least a portion of a stent- valve at the accommodation region in a radially collapsed configuration; a delivery introducer captive on the delivery apparatus, and configured to be slidable between a first position surrounding at least a portion of the stent-valve accommodation region , and a second position in which the delivery introducer slides proximally of the stent-valve accommodation region ; wherein the delivery introducer is configured to be insertable at least partly into the mouth of a said arterial introducer , the delivery introducer configured for introducing the stent-accommodation region through the haemostasis valve . a first constraining sheath at a stent-valve accommodation region of the apparatus at a distal end of the apparatus, and configured for constraining at least a portion of a stent- valve at the accommodation region in a radially collapsed configuration; a delivery introducer captive on the delivery apparatus, and configured to be slidable between a first position surrounding at least a portion of the stent-valve accommodation region , and a second position in which the delivery introducer slides proximally of the stent-valve accommodation region ; wherein the delivery introducer is configured to be insertable at least partly into the mouth of a said arterial introducer , the delivery introducer configured for introducing the stent-accommodation region through the haemostasis valve .
An aromatic alkylation catalyst, comprising: a zeolite; an inorganic oxide; and silanol functional groups of less than 0.49 area/mg on the surface of said zeolite; wherein said zeolite has a Si/Al 2 molar ratio between 18 to 30; wherein the silanol functional groups on the surface of the zeolite have wavelengths of from 3764 to 3700 cm -1 in the infrared spectrum; wherein the area per mg of silanol functional groups on the surface of the zeolite is measured by the steps of: performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; wherein the Si/Al 2 molar ratio is measured by elemental analysis using inductively coupled plasma-atomic emission spectroscopy. a zeolite; an inorganic oxide; and silanol functional groups of less than 0.49 area/mg on the surface of said zeolite; wherein said zeolite has a Si/Al 2 molar ratio between 18 to 30; wherein the silanol functional groups on the surface of the zeolite have wavelengths of from 3764 to 3700 cm -1 in the infrared spectrum; wherein the area per mg of silanol functional groups on the surface of the zeolite is measured by the steps of: performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; wherein the Si/Al 2 molar ratio is measured by elemental analysis using inductively coupled plasma-atomic emission spectroscopy.
An energy storage device comprising: an electrode assembly ; a case accommodating the electrode assembly ; a lid plate structure including a lid plate of the case , a current collector electrically connected to a tab provided at the electrode assembly , and an insulating member disposed between the lid plate and the current collector ; and a first spacer disposed between an end provided with the tab of the electrode assembly and the lid plate and having a locked portion locked to part of the lid plate structure ; characterized in that the electrode assembly is provided with a separator projecting in an alignment direction of the electrode assembly and the lid plate . an electrode assembly ; a case accommodating the electrode assembly ; a lid plate structure including a lid plate of the case , a current collector electrically connected to a tab provided at the electrode assembly , and an insulating member disposed between the lid plate and the current collector ; and a first spacer disposed between an end provided with the tab of the electrode assembly and the lid plate and having a locked portion locked to part of the lid plate structure ;
A media support comprising a vacuum hole array including: a dense array of vacuum holes , a first sparse array including sparsely distributed rows and columns of vacuum holes , a second sparse array including sparsely distributed rows and densely distributed columns of vacuum holes ; and a third sparse array , the third sparse array comprising sparsely distributed columns and densely distributed rows of vacuum holes , and wherein the dense array includes densely distributed rows and densely distributed columns , and a constant pitch of the sparse arrays is equal to a constant pitch of the dense array multiplied by two or a higher integer; and wherein a first strip of the vacuum hole array that extends close and parallel to a first edge of the media support includes the dense array and the second sparse array and a second strip of the vacuum hole array which extends close and parallel to a second edge of the media support includes the dense array and the third sparse array , wherein the second edge extends perpendicular to the first edge . a dense array of vacuum holes , a first sparse array including sparsely distributed rows and columns of vacuum holes , a second sparse array including sparsely distributed rows and densely distributed columns of vacuum holes ; and a third sparse array , the third sparse array comprising sparsely distributed columns and densely distributed rows of vacuum holes , and wherein
An air conditioner system, comprising: a refrigeration system at least including a compressor , a first four-way valve , an outdoor heat exchanger , and an indoor heat exchanger ; a second four-way valve , a first port of which is connected to a pipeline between the first four-way valve and the indoor heat exchanger , and a second port of which is connected to a first position (A1) in a pipeline between the indoor heat exchanger and the outdoor heat exchanger ; an auxiliary heat exchanger having a first passage and a second passage, wherein a first port of the first passage is in communication with a fourth port of the second four-way valve , a second port of the first passage is connected to a second position (A2) in the pipeline between the indoor heat exchanger and the outdoor heat exchanger , a first port of the second passage is connected to a third position (A3) in the pipeline between the indoor heat exchanger and the outdoor heat exchanger , and a second port of the second passage is connected to any position in a pipeline between the outdoor heat exchanger and a return-air inlet of the compressor ; a first throttle component disposed in a pipeline between the second port of the first passage and the second position (A2), or in a pipeline disposed between the first port of the first passage and the fourth port of the second four-way valve ; and a second throttle component disposed on a pipeline between the first port of the second passage and the third position (A3). a refrigeration system at least including a compressor , a first four-way valve , an outdoor heat exchanger , and an indoor heat exchanger ; a second four-way valve , a first port of which is connected to a pipeline between the first four-way valve and the indoor heat exchanger , and a second port of which is connected to a first position (A1) in a pipeline between the indoor heat exchanger and the outdoor heat exchanger ; an auxiliary heat exchanger having a first passage and a second passage, wherein a first port of the first passage is in communication with a fourth port of the second four-way valve , a second port of the first passage is connected to a second position (A2) in the pipeline between the indoor heat exchanger and the outdoor heat exchanger , a first port of the second passage is connected to a third position (A3) in the pipeline between the indoor heat exchanger and the outdoor heat exchanger , and a second port of the second passage is connected to any position in a pipeline between the outdoor heat exchanger and a return-air inlet of the compressor ; a first throttle component disposed in a pipeline between the second port of the first passage and the second position (A2), or in a pipeline disposed between the first port of the first passage and the fourth port of the second four-way valve ; and a second throttle component disposed on a pipeline between the first port of the second passage and the third position (A3).
A transmission device , comprising: an external transmission device , the external transmission device being of a cylindrical shape, the external transmission device having an outer wall and an inner wall , and the inner wall being provided with a plurality of inwardly extending arc-shaped protrusions ; an internal transmission device , the internal transmission device being disposed in the inner wall of the external transmission device , the internal transmission device having an outer circumferential surface , and the outer circumferential surface being provided with a plurality of outwardly extending arc-shaped protrusions ; and a spacer ring , the spacer ring being located between the arc-shaped protrusions of the external transmission device and the arc-shaped protrusions of the internal transmission device , and the spacer ring being capable of being simultaneously in contact with the arc-shaped protrusions of the external transmission device and the arc-shaped protrusions of the internal transmission device ; characterized in that when the rotation driving torque between the external transmission device and the internal transmission device is greater than a predetermined torque, one or more of the arc-shaped protrusions of the external transmission device or the arc-shaped protrusions of the internal transmission device deform to enable the external transmission device to slip and rotate relative to the internal transmission device . an external transmission device , the external transmission device being of a cylindrical shape, the external transmission device having an outer wall and an inner wall , and the inner wall being provided with a plurality of inwardly extending arc-shaped protrusions ; an internal transmission device , the internal transmission device being disposed in the inner wall of the external transmission device , the internal transmission device having an outer circumferential surface , and the outer circumferential surface being provided with a plurality of outwardly extending arc-shaped protrusions ; and a spacer ring , the spacer ring being located between the arc-shaped protrusions of the external transmission device and the arc-shaped protrusions of the internal transmission device , and the spacer ring being capable of being simultaneously in contact with the arc-shaped protrusions of the external transmission device and the arc-shaped protrusions of the internal transmission device ; characterized in that when the rotation driving torque between the external transmission device and the internal transmission device is greater than a predetermined torque, one or more of the arc-shaped protrusions of the external transmission device or the arc-shaped protrusions of the internal transmission device deform to enable the external transmission device to slip and rotate relative to the internal transmission device .
A method of processing video data, the method comprising: obtaining the video data; using frame rate up-conversion bilateral matching coding mode for a block of the video data, wherein local illumination compensation is disallowed from being used for the block when the frame rate up-conversion bilateral matching coding mode is used for the block; and determining motion information for the block, wherein the motion information is determined based on the frame rate up-conversion bilateral matching coding mode used for the block, characterized by coding all syntax elements in the video data associated with the block, wherein a local illumination compensation flag is not coded in the syntax elements for the block in response to the frame rate up-conversion bilateral matching coding mode being used for the block. obtaining the video data; using frame rate up-conversion bilateral matching coding mode for a block of the video data, wherein local illumination compensation is disallowed from being used for the block when the frame rate up-conversion bilateral matching coding mode is used for the block; and determining motion information for the block, wherein the motion information is determined based on the frame rate up-conversion bilateral matching coding mode used for the block, characterized by coding all syntax elements in the video data associated with the block, wherein a local illumination compensation flag is not coded in the syntax elements for the block in response to the frame rate up-conversion bilateral matching coding mode being used for the block.
A surface cleaning apparatus including: a floor head ; a housing supporting: a suction source; and a dirt collection container having an elongate axis (A); an elongate member having an elongate axis (B), said elongate member connecting the floor head to the housing, said elongate member including a passage for carrying dirt-laden air from the floor head to the dirt collection container, wherein the elongate axis (B) of the elongate member intersects or substantially intersects the elongate axis (A) of the dirt collection container, and characterised in that the elongate axis (A) of the dirt collection container is substantially horizontal in normal use. a floor head ; a housing supporting: a suction source; and a dirt collection container having an elongate axis (A); a suction source; and a dirt collection container having an elongate axis (A); an elongate member having an elongate axis (B), said elongate member connecting the floor head to the housing, said elongate member including a passage for carrying dirt-laden air from the floor head to the dirt collection container, wherein the elongate axis (B) of the elongate member intersects or substantially intersects the elongate axis (A) of the dirt collection container, and characterised in that the elongate axis (A) of the dirt collection container is substantially horizontal in normal use.
A frame comprising two lateral reveal parts , a lower crossbar, and an upper crossbar, characterized in that at least one of the lateral reveal parts or one of the two crossbars is formed as a frame part, which consists of a base body and at least one compression insert connected to the base body, wherein the compression insert is made of a material that has a lower compression modulus than the material of the base body, and wherein the compression insert is designed to be in contact with a window or door frame to absorb thermal expansion of the window or door frame .