mhurhangee/ep-ind-claims huggingface dataset:
A high frequency filter comprising a waveguide and at least one resonant cavity, wherein said waveguide comprises: a metal or metallized base layer (2, 46); a lid arranged in parallel with said metal or metallized base layer; a waveguiding structure in the form of a ridge, a groove or a microstrip line; and an artificial magnetic conductor arranged on said base layer, between the base layer and the lid, and arranged aligned with said waveguiding structure to prevent waveguide propagation along other directions than along said waveguide structure, said at least one resonant cavity is arranged within said base layer and arranged in a waveguiding path of the waveguiding structure, and extending essentially perpendicular to a plane of said base layer, and characterized in that the at least one resonant cavity has a depth of about half a wavelength of the operating frequency. a metal or metallized base layer (2, 46); a lid arranged in parallel with said metal or metallized base layer; a waveguiding structure in the form of a ridge, a groove or a microstrip line; and an artificial magnetic conductor arranged on said base layer, between the base layer and the lid, and arranged aligned with said waveguiding structure to prevent waveguide propagation along other directions than along said waveguide structure, said at least one resonant cavity is arranged within said base layer and arranged in a waveguiding path of the waveguiding structure, and extending essentially perpendicular to a plane of said base layer, and characterized in that the at least one resonant cavity has a depth of about half a wavelength of the operating frequency.
A method comprising: collinearly converging a first laser beam and a second laser beam along a mutual path, a first focus point of the first laser beam and a second focus point of the second laser beam offset from one another along the mutual path; moving the collinearly converged first and second laser beams (21,22) in a first pass across at least a portion of a transparent article to form a first series of flaws (530,535) in the transparent article at a first depth from a surface of the transparent article corresponding to the first focus point and a second depth from the surface of the transparent article corresponding to the second focus point; adjusting at least one of the first focus point and the second focus point; and moving the collinearly converged first and second laser beams in a second pass across the portion of the transparent article to form a second series of flaws (540,545) in the transparent article at a third depth from the surface of the transparent article corresponding to the first focus point and a fourth depth from the surface of the transparent article corresponding to the second focus point, the first series of flaws interleaved with the second series of flaws. collinearly converging a first laser beam and a second laser beam along a mutual path, a first focus point of the first laser beam and a second focus point of the second laser beam offset from one another along the mutual path; moving the collinearly converged first and second laser beams (21,22) in a first pass across at least a portion of a transparent article to form a first series of flaws (530,535) in the transparent article at a first depth from a surface of the transparent article corresponding to the first focus point and a second depth from the surface of the transparent article corresponding to the second focus point; adjusting at least one of the first focus point and the second focus point; and moving the collinearly converged first and second laser beams in a second pass across the portion of the transparent article to form a second series of flaws (540,545) in the transparent article at a third depth from the surface of the transparent article corresponding to the first focus point and a fourth depth from the surface of the transparent article corresponding to the second focus point, the first series of flaws interleaved with the second series of flaws.
An oxygenator (200; 500) comprising: a housing (202; 502) having a blood inlet and a blood outlet, the blood inlet extending into an interior of the housing (202; 502); a heat exchanger disposed within the housing (202; 502), the heat exchanger coupled, at an inlet end, to a heat-exchange fluid inlet; a gas exchanger disposed within the housing (202; 502), the gas exchanger comprising a bundle of gas-exchange fibers coupled, at a gas outlet end, to a gas-exchange fluid outlet; and characterized in that the oxygenator further comprises an insulating chamber (236; 512) configured to receive an insulating fluid to thermally insulate at least the gas outlet end of the bundle of gas-exchange fibers. a housing (202; 502) having a blood inlet and a blood outlet, the blood inlet extending into an interior of the housing (202; 502); a heat exchanger disposed within the housing (202; 502), the heat exchanger coupled, at an inlet end, to a heat-exchange fluid inlet; a gas exchanger disposed within the housing (202; 502), the gas exchanger comprising a bundle of gas-exchange fibers coupled, at a gas outlet end, to a gas-exchange fluid outlet; and characterized in that the oxygenator further comprises an insulating chamber (236; 512) configured to receive an insulating fluid to thermally insulate at least the gas outlet end of the bundle of gas-exchange fibers.
An ammonia stripper comprising, a tank having internal dividers that create a plurality of cells arranged in series within the tank, the plurality of cells in fluid communication with each other; and a cassette in each cell, the cassette comprising a frame, an aerator, and a heat exchanger tubing, wherein the aerator and the heat exchanger tubing are attached to the frame, wherein the tank is large enough to contain the aerator, at least part of the heat exchanger tubing and at least part of the frame.
A method operative in a computing entity (700, 800, 900) positioned intermediate between first (702, 802, 902) and second (704, 804, 904) computing entities, the computing entity (700, 800, 900) comprising a software stack comprising an SSL layer and an underlying socket layer, each of the first (702, 802, 902) and second (704, 804, 904) computing entities operative to establish, between them, a Secure Sockets Layer or Transport Layer Security communication path, wherein during an SSL/TLS data flow between the first (702, 802, 902) and second (704, 804, 904) computing entities one or more SSL/TLS records are generated, comprising: establishing a proxy (700, 800, 900) between the SSL layer and the underlying socket layer; wherein the proxy does not have access to a session key of the SSL/TLS data flow; and without modifying the existing SSL layer, injecting, by the proxy, enrichment information into, or removing enrichment information from, the SSL/TLS data flow of SSL/TLS records, the enrichment information represented as an illegal SSL/TLS record; wherein the enrichment information is enrichment data describing a network status or characteristic, or a device status or characteristic; and wherein the illegal SSL/TLS record has an invalid record type value to designate the SSL/TLS record as being associated with the enrichment information. establishing a proxy (700, 800, 900) between the SSL layer and the underlying socket layer; wherein the proxy does not have access to a session key of the SSL/TLS data flow; and without modifying the existing SSL layer, injecting, by the proxy, enrichment information into, or removing enrichment information from, the SSL/TLS data flow of SSL/TLS records, the enrichment information represented as an illegal SSL/TLS record; wherein the enrichment information is enrichment data describing a network status or characteristic, or a device status or characteristic; and wherein the illegal SSL/TLS record has an invalid record type value to designate the SSL/TLS record as being associated with the enrichment information.
A method for implementing a flexible Hybrid Automatic Repeat Request, HARQ, timing between a base station and a terminal, performed by the base station, the method comprising: acquiring, from the terminal, a first reception processing delay parameter and a first transmission processing delay parameter of the terminal; and indicating an uplink/downlink HARQ timing between the base station and the terminal, based on the first reception processing delay parameter, the first transmission processing delay parameter and a processing delay parameter of the base station, to the terminal; configuring a second reception processing delay parameter and a second transmission processing delay parameter for the terminal, based on the first reception processing delay parameter and the first transmission processing delay parameter, wherein the second reception processing delay parameter is greater than or equal to the first reception processing delay parameter, and the second transmission processing delay parameter is greater than or equal to the first transmission processing delay parameter; summing the second reception processing delay parameter, the processing delay parameter of the base station, a previous statistical uplink/downlink propagation delay parameter and the second transmission processing delay parameter; and obtaining the uplink/downlink HARQ timing between the base station and the terminal based on the sum, wherein the uplink/downlink HARQ timing between the base station and the terminal is greater than or equal to the sum. acquiring, from the terminal, a first reception processing delay parameter and a first transmission processing delay parameter of the terminal; and indicating an uplink/downlink HARQ timing between the base station and the terminal, based on the first reception processing delay parameter, the first transmission processing delay parameter and a processing delay parameter of the base station, to the terminal; configuring a second reception processing delay parameter and a second transmission processing delay parameter for the terminal, based on the first reception processing delay parameter and the first transmission processing delay parameter, wherein the second reception processing delay parameter is greater than or equal to the first reception processing delay parameter, and the second transmission processing delay parameter is greater than or equal to the first transmission processing delay parameter; summing the second reception processing delay parameter, the processing delay parameter of the base station, a previous statistical uplink/downlink propagation delay parameter and the second transmission processing delay parameter; and obtaining the uplink/downlink HARQ timing between the base station and the terminal based on the sum, wherein the uplink/downlink HARQ timing between the base station and the terminal is greater than or equal to the sum.
A high-temperature piping product for flowing a high-temperature fluid, configured from a plurality of primary pipe members and a welding material, wherein the primary pipe members are each made from an Ni-based forged alloy which contains Al of 3.5 mass% or more and 4.5 mass% or less at least one of Mo and W, and optionally Cr of 15 mass% or more 20 mass% or less; optionally Co of 25 mass% or less; optionally C of 0.01 mass% or more and 0.15 mass% or less, the total content of the Mo and the W being 3 mass% or more and 8 mass% or less, the balance being Ni and inevitable impurities, the Ni-based forged alloy having a γ'-phase dissolution temperature of from 920 to 970°C, and a γ' phase being precipitated in the Ni-based forged alloy in 30 volume% or more in a temperature range of from 700 to 800°C, wherein the welding material is made from an Ni-based cast alloy having a cast structure formed by welding, the Ni-based cast alloy containing Al of 3 mass% or more and 3.5 mass% or less and at least one of Mo and W, the total content of the Mo and the W being 9 mass% or more and 15 mass% or less, optionally Cr of 15 mass% or more and 20 mass% or less; optionally Co of 25 mass% or less; optionally C of 0.01 mass% or more and 0.15 mass% or less, the balance being Ni and inevitable impurities, the Ni-based cast alloy having a γ'-phase dissolution temperature of from 850 to 900°C, a γ' phase being precipitated in the Ni-based cast alloy in 20 volume% or more in a temperature range of from 700 and 800°C, and wherein the welding material is buttered to the primary pipe members in portions to be welded to each other.
Method for detecting an obstacle in an environment of a motor vehicle, characterized in that it includes the steps of: - defining at least one first region of interest by performing a first detection of an obstacle by means of shape recognition in an acquired image of said environment; - defining at least one second region of interest by performing a second detection of said obstacle by detecting movement relative to the vehicle over a sequence of acquired images of said environment; - classifying said detected obstacle with a first confidence index and a second confidence index applied to the first region of interest and the second region of interest, respectively, with respect to given features; and - validating the classification for said detected obstacle with respect to said confidence indices (IC1, IC2) and with respect to said regions of interest (ROI1, ROI2), resulting in validated regions of interest (ROI1, ROI2), and wherein said second detection includes the sub-steps of: - constructing a background image (Iref), which is recomputed for each image of a sequence of images; - subtracting the background image (Iref) from the current image (Ic) in the sequence of images, resulting in a resultant image (Ires); - differentiating movements determined in the resultant image (Ires) on the basis of a threshold (Smax); and - extracting second regions of interest on the basis of the differentiation. - defining at least one first region of interest by performing a first detection of an obstacle by means of shape recognition in an acquired image of said environment; - defining at least one second region of interest by performing a second detection of said obstacle by detecting movement relative to the vehicle over a sequence of acquired images of said environment; - classifying said detected obstacle with a first confidence index and a second confidence index applied to the first region of interest and the second region of interest, respectively, with respect to given features; and - validating the classification for said detected obstacle with respect to said confidence indices (IC1, IC2) and with respect to said regions of interest (ROI1, ROI2), resulting in validated regions of interest (ROI1, ROI2), and - constructing a background image (Iref), which is recomputed for each image of a sequence of images; - subtracting the background image (Iref) from the current image (Ic) in the sequence of images, resulting in a resultant image (Ires); - differentiating movements determined in the resultant image (Ires) on the basis of a threshold (Smax); and - extracting second regions of interest on the basis of the differentiation.
A method for the control and prevention of sugar beet leaf spot caused by Cercospora beticola (CERCBE) in a sugar beet plant, the method comprising: applying a fungicidally effective amount of a compound of Formula I, wherein the compound of Formula I is applied at a rate between 100 g/ha and 300 g/ha, and wherein said effective amount is applied to at least one of the plant, an area adjacent to the plant, soil adapted to support growth of the plant, a root of the plant, foliage of the plant, and a seed adapted to produce the plant; and wherein the fungicidally effective amount compound of Formula I is applied as a composition and the composition is applied alone
A duct stringer (30, 31) forming at least part of a duct with a closed cross-section which is adapted to transport fluid, the duct stringer comprising: a duct wall, wherein the duct wall has an internal duct surface and an external surface, and the duct wall comprises an aperture between the internal duct surface and the external surface, and wherein the duct stringer comprises a female bayonet fitting in the duct wall, wherein the female bayonet fitting is configured to engage with a male bayonet fitting on a fluid transporting conduit to connect the fluid transporting conduit with the duct, wherein the female bayonet fitting is defined between the internal duct surface and the external surface, and the female bayonet fitting comprises at least two slots (52, 53) extending through the duct wall. a duct wall, wherein the duct wall has an internal duct surface and an external surface, and the duct wall comprises an aperture between the internal duct surface and the external surface, and wherein the duct stringer comprises a female bayonet fitting in the duct wall, wherein the female bayonet fitting is configured to engage with a male bayonet fitting on a fluid transporting conduit to connect the fluid transporting conduit with the duct, wherein the female bayonet fitting is defined between the internal duct surface and the external surface, and the female bayonet fitting comprises at least two slots (52, 53) extending through the duct wall.
Knife with a housing (11, 12, 13, 54) and with a blade, with a first housing part and at least one second housing part, wherein the second housing part is relatively movable relative to the first housing part on a movement path at least between an open position, in which access to a housing interior is possible, and a closed position and is releasably lockable in at least one position by means of a locking device, wherein first locking means are assigned to the first housing part and second locking means are assigned to the second housing part, wherein the first locking means comprise an arm movable between a lock position and a release position, said arm having at least one lock surface, wherein the lock surface is releasably movable into the movement path of at least one retaining surface of the second locking means, characterised in that the arm is assigned to a third housing part, which is fastenable and lockable on the first housing part by means of a fastening device configured as a snap-in device.
A computer usable storage medium comprising instructions that when executed by a computer cause a computer to perform a method for recreating a performance of a sporting activity from a camera perspective, said method comprising: receiving a video feed associated with one or more monitored performances of a sporting activity; receiving data associated with said one or more monitored performances; storing performance information corresponding to said activity; correlating said video feed with said data and, based on said correlating, generating a real time recreation of a performance of said activity from a camera perspective; and correlating said real time recreation of said performance from said camera perspective with a global map system such that correlated video feed and data is linked to a real location; characterised in that the step of storing said performance information corresponding to the sporting activity comprises storing one or more of the following: shock absorption information, gear positioning information and suspension information; and in that the method comprises the steps of: presenting to a participant of said sporting activity a rider perspective video and a split screen graphic showing an altitude and map aside said rider perspective video; and providing comparative performance data to a participant based on the received data associated with said one or more monitored performances and the stored performance information. receiving a video feed associated with one or more monitored performances of a sporting activity; receiving data associated with said one or more monitored performances; storing performance information corresponding to said activity; correlating said video feed with said data and, based on said correlating, generating a real time recreation of a performance of said activity from a camera perspective; and correlating said real time recreation of said performance from said camera perspective with a global map system such that correlated video feed and data is linked to a real location; characterised in that the step of storing said performance information corresponding to the sporting activity comprises storing one or more of the following: shock absorption information, gear positioning information and suspension information; and in that the method comprises the steps of: presenting to a participant of said sporting activity a rider perspective video and a split screen graphic showing an altitude and map aside said rider perspective video; and providing comparative performance data to a participant based on the received data associated with said one or more monitored performances and the stored performance information. presenting to a participant of said sporting activity a rider perspective video and a split screen graphic showing an altitude and map aside said rider perspective video; and providing comparative performance data to a participant based on the received data associated with said one or more monitored performances and the stored performance information.
An integrated current sensor using a Z-axis magnetoresistive gradiometer and a lead frame current, comprising a Z axis gradiometer and a lead frame primary coil, wherein the Z axis gradiometer is a magnetoresistive Z-axis gradient sensor, comprising a substrate, two elongated soft magnetic flux concentrators (A1 and B1) having a separate gradient feature interval Lg and placed upon the substrate, and magnetoresistive sensor strings located on the upper surface or the lower surface of the soft magnetic flux concentrators and at two side positions equidistant from a long-axis centerline of the soft magnetic flux concentrators, such that the combined magnetoresistive sensing unit detects the magnetic field perpendicular to the long-axis center line of the soft magnetic flux concentrators, and it is configured as a gradiometer sensor bridge; the lead frame primary coil comprises an elongated current detection band placed directly above or below the Z axis gradiometer, the two soft magnetic flux concentrators (A1 and B1) are symmetrically placed on two sides of a band center line of the elongated current detection band that is parallel to the long-axis center line of the soft magnetic flux concentrators, and the direction of a detection current in the elongated current detection band is parallel to the direction of the long-axis center line of the soft magnetic flux concentrators; and further comprising a secondary coil, wherein the secondary coil comprises two subcoils (21, 22) connected in series and having opposite coiling directions, and each of the subcoils comprises two straight wires (23, 24, 25, 26) symmetrically located on two sides of the long-axis center line of the soft magnetic flux concentrators and having opposite feedback current directions.