mhurhangee/ep-ind-claims huggingface dataset:
A catalytic article comprising: a wall flow filter having an inlet end, an outlet end, alternating inlet channels and outlet channels and porous walls separating the inlet channels from the outlet channels, the inlet channels having plugs at the outlet end and the outlet channels having plugs at the inlet end, the porous walls having a mean pore diameter and a pore size distribution; a first ammonia SCR catalyst material embedded in the porous walls at a first loading, the first SCR catalyst material having a first mean particle size and first particle size distribution; and a second ammonia SCR catalyst material on the surface of the porous walls at a second loading, the second SCR catalyst material having second mean particle size and second particle size distribution, wherein both the first and second SCR catalyst material contains no added platinum group metal component, wherein the second mean particle size is larger than the first mean particle size; wherein the ratio of the mean pore diameter to the first ammonia SCR composition particle size D 90 is in the range of greater than 12.5 to 50, and wherein the second ammonia SCR catalyst material is coated only on the walls of the inlet channels of the wall flow filter. a wall flow filter having an inlet end, an outlet end, alternating inlet channels and outlet channels and porous walls separating the inlet channels from the outlet channels, the inlet channels having plugs at the outlet end and the outlet channels having plugs at the inlet end, the porous walls having a mean pore diameter and a pore size distribution; a first ammonia SCR catalyst material embedded in the porous walls at a first loading, the first SCR catalyst material having a first mean particle size and first particle size distribution; and a second ammonia SCR catalyst material on the surface of the porous walls at a second loading, the second SCR catalyst material having second mean particle size and second particle size distribution, wherein both the first and second SCR catalyst material contains no added platinum group metal component, wherein the second mean particle size is larger than the first mean particle size; wherein the ratio of the mean pore diameter to the first ammonia SCR composition particle size D 90 is in the range of greater than 12.5 to 50, and wherein the second ammonia SCR catalyst material is coated only on the walls of the inlet channels of the wall flow filter.
Directly adhering composite composed of at least one part produced from at least one polyamide molding compound and at least one part produced from at least one elastomer, wherein at least one part comprises the mixture of polyoctenamer and polybutadiene.
A planter for use in seed planting comprising first and second planter units (26,28) driven with a common drive, each unit (26,28) comprising a seed placement structure operable to place a plurality of spaced apart seeds in a respective row in the soil, a fertilizer placement structure operable to place multiple discrete fertilizer deposits in contact with the soil in said respective row, the placement structure including a first and a second rotatable metering discs, each comprising on one side a plurality of seed pockets and on the other side a plurality of fertilizer pockets, wherein said seed pockets and said fertilizer pockets are arranged in alternating succession around the periphery of the respective disc so that a fertilizer pocket is offset circumferentially from each seed pocket and is disposed between each pair of successive seed pockets in such a manner that each fertilizer deposit is approximately equidistantly spaced from two adjacent seeds placed in contact with the soil in said respective row by said seed placement structure, characterised in that the planter further comprises an indexed coupler (88;120) to synchronize the respective dispensing of inputs of said metering discs, the indexed coupler (88;120) being coupled between said metering discs and having a first shaft coupled to a first of the said metering discs and a second shaft coupled to a second of said metering discs, said first and second shafts coupled end to end in axial alignment, said first and second shafts (92,96) rotatable relative one another to index said metering discs together and lockable relative to one another in one of a plurality of predetermined positions to prevent rotation about the rotational axis while operating said planter.
A method of joining plates at an angle in between them, wherein the method comprises providing a first plate having opposed top and bottom surfaces, a first side-edge, and a second side-edge opposite to the first side-edge, providing a second plate having opposed top and bottom surfaces and a first side-edge, removing material from the top surface and the first side-edge of the first plate to obtain a first adapted weld region of the first plate, wherein the first adapted weld region of the first plate has an inclined portion (111; 111') of the top surface near the first side-edge of the first plate and a straight first side-edge (131; 131'), removing material from one of the top and bottom surfaces and the first side-edge of the second plate to obtain an adapted weld region of the second plate, wherein the adapted weld region of the second plate comprises a first inclined portion (211; 211'; 222) of the one of the top and bottom surfaces near the first side-edge of the second plate, providing the first plate in a substantially horizontal position such that the straight first side-edge (131; 131') of the first plate is substantially vertical, providing the second plate in an inclined position with respect to the first plate such that the first inclined portion (211; 211'; 222) of the one of the top and bottom surfaces of the second plate substantially abuts the straight first side-edge (131; 131') of the first plate, and welding together the first and second plates. providing a first plate having opposed top and bottom surfaces, a first side-edge, and a second side-edge opposite to the first side-edge, providing a second plate having opposed top and bottom surfaces and a first side-edge, removing material from the top surface and the first side-edge of the first plate to obtain a first adapted weld region of the first plate, wherein the first adapted weld region of the first plate has an inclined portion (111; 111') of the top surface near the first side-edge of the first plate and a straight first side-edge (131; 131'), removing material from one of the top and bottom surfaces and the first side-edge of the second plate to obtain an adapted weld region of the second plate, wherein the adapted weld region of the second plate comprises a first inclined portion (211; 211'; 222) of the one of the top and bottom surfaces near the first side-edge of the second plate, providing the first plate in a substantially horizontal position such that the straight first side-edge (131; 131') of the first plate is substantially vertical, providing the second plate in an inclined position with respect to the first plate such that the first inclined portion (211; 211'; 222) of the one of the top and bottom surfaces of the second plate substantially abuts the straight first side-edge (131; 131') of the first plate, and welding together the first and second plates.
A method for improving hearability of reference signals in a wireless network, comprising: determining a positioning subframe configured for transmitting positioning reference signals, PRS, wherein access points in said wireless network blank user plane data transmission over said positioning subframe; selecting a plurality of resource elements in the positioning subframe for transmitting a PRS avoiding resource elements in the positioning subframe configured for transmitting cell-specific reference signals, CRS; and transmitting a PRS in the plurality of resource elements; wherein the selecting a plurality of resource elements includes selecting the plurality of resource elements in a resource block in a diagonal pattern over the duration of one slot of the positioning subframe, and wherein the plurality of resource elements are representative of a number of frequency carriers over orthogonal frequency division multiplexing, OFDM, symbols in said slot, and wherein different subcarriers over different OFDM symbols are used in the slot for transmitting the PRS, wherein the diagonal PRS pattern formed by the selected plurality of resource elements comprises a diagonal line of resource elements selected in consecutive subcarriers and in consecutive OFDM symbols in the resource block and utilizes all OFDM symbols in the slot except those OFDM symbols with resource elements reserved for CRS transmission. determining a positioning subframe configured for transmitting positioning reference signals, PRS, wherein access points in said wireless network blank user plane data transmission over said positioning subframe; selecting a plurality of resource elements in the positioning subframe for transmitting a PRS avoiding resource elements in the positioning subframe configured for transmitting cell-specific reference signals, CRS; and transmitting a PRS in the plurality of resource elements; wherein the selecting a plurality of resource elements includes selecting the plurality of resource elements in a resource block in a diagonal pattern over the duration of one slot of the positioning subframe, and wherein the plurality of resource elements are representative of a number of frequency carriers over orthogonal frequency division multiplexing, OFDM, symbols in said slot, and wherein different subcarriers over different OFDM symbols are used in the slot for transmitting the PRS, wherein the diagonal PRS pattern formed by the selected plurality of resource elements comprises a diagonal line of resource elements selected in consecutive subcarriers and in consecutive OFDM symbols in the resource block and utilizes all OFDM symbols in the slot except those OFDM symbols with resource elements reserved for CRS transmission.
Upholstered furniture arrangement for converting from a first arrangement variant into a second arrangement variant, comprising: - a base body with a base body top side, a base body bottom side, a base body front side, a base body rear side, a first base body top end and a second base body top end, - a seat cushion unit with a seat cushion, a seat cushion upper side, a seat cushion lower side, a seat cushion front side, a seat cushion rear side, a first seat cushion head end, a second seat cushion head end and a seat cushion armrest (37.1) at the first seat cushion head end, wherein the seat cushion armrest (37.1) is an integral and/or one-piece component of the seat cushion, - a backrest with a backrest front side, a backrest rear side, a first head end of the backrest and a second head end of the backrest, wherein - in the first arrangement variant, at least a part of the seat cushion lower side is positioned on the base body top side, the first seat cushion head end is positioned on the first base body top end and the backrest front side is positioned on the seat cushion rear side and on the base body rear side, and - in the second arrangement variant, at least a part of the seat cushion lower side is positioned on the base body top side, the first seat cushion head end is positioned on the second base body top end and the backrest rear side is positioned on the seat cushion front side and on the base body rear side. - a base body with a base body top side, a base body bottom side, a base body front side, a base body rear side, a first base body top end and a second base body top end, - a seat cushion unit with a seat cushion, a seat cushion upper side, a seat cushion lower side, a seat cushion front side, a seat cushion rear side, a first seat cushion head end, a second seat cushion head end and a seat cushion armrest (37.1) at the first seat cushion head end, wherein the seat cushion armrest (37.1) is an integral and/or one-piece component of the seat cushion, - a backrest with a backrest front side, a backrest rear side, a first head end of the backrest and a second head end of the backrest, wherein - in the first arrangement variant, at least a part of the seat cushion lower side is positioned on the base body top side, the first seat cushion head end is positioned on the first base body top end and the backrest front side is positioned on the seat cushion rear side and on the base body rear side, and - in the second arrangement variant, at least a part of the seat cushion lower side is positioned on the base body top side, the first seat cushion head end is positioned on the second base body top end and the backrest rear side is positioned on the seat cushion front side and on the base body rear side.
A DNA vaccine comprising two nucleic acid sequences expressed bicistronically, wherein the DNA vaccine comprises: a) a first nucleic acid sequence encoding a polypeptide having cell death inducing activity, wherein the polypeptide is perforin and the first nucleic acid sequence is operatively linked to a first promoter that is a SV40 promoter; and b) a second nucleic acid sequence encoding an immunogenic polypeptide, wherein the second nucleic acid sequence is operatively linked to a second promoter that is a CMV promoter, wherein the second promoter has a greater relative efficacy than the first promoter, and wherein necrosis is induced in a cell exposed to the nucleic acid vaccine. a) a first nucleic acid sequence encoding a polypeptide having cell death inducing activity, wherein the polypeptide is perforin and the first nucleic acid sequence is operatively linked to a first promoter that is a SV40 promoter; and b) a second nucleic acid sequence encoding an immunogenic polypeptide, wherein the second nucleic acid sequence is operatively linked to a second promoter that is a CMV promoter,
A process for coating rotatable carbon-fiber reinforced plastic surfaces or rotatable objects made of carbon-fiber reinforced plastics for fast rotating components for turbomolecular pumps, characterized in that the coating in the form of dimers or correspondingly halogenated dimers of general formula I (monomerized) wherein R 1 represents one or more hydrogen or halogen radicals, each R 2 represents hydrogen or halogen, and R 3 jointly represent a corresponding xylyl radical to complete a polymeric structure, is applied to the surfaces by vacuum coating, and the monomers are polymerized. R 1 represents one or more hydrogen or halogen radicals, each R 2 represents hydrogen or halogen, and R 3 jointly represent a corresponding xylyl radical to complete a polymeric structure, is applied to the surfaces by vacuum coating, and the monomers are polymerized.
A method for determining the position of a first sensor node (RX 1) relative to a second sensor node, wherein the first and the second sensor nodes are communicatively connected to one another and are a constituent part of a sensor network, having the method steps: receiving signal segments of OFDM-modulated transmitted signals from at least two transmitters (TX SoO1, TX SoO2) by the first and the second sensor nodes, beginning at a time t 1 for a time period t RX; determining the angle of incidence of the transmitted signals to at least one of the sensor nodes; determining the distance between the sensor nodes from the propagation time differences of the transmitted signals of the at least two transmitters received at the first and second sensor nodes; determining the position of the first sensor node (RX 1) relative to the second sensor node (RX 2) from the distance between the sensor nodes and the angle of incidence of the transmitted signals, wherein the sensor nodes determine the time t 1 and time period t RX relative to a reference frequency that is derived from the OFDM-modulated transmitted signal of at least one of the transmitters (TX SoO1, TX SoO2) received by the respective sensor node, wherein the sensor nodes determine the reference frequency by means of a correction signal obtained from the OFDM-modulated transmitted signal and wherein that the position of the first sensor node is determined in the first sensor node, and the second sensor node transmits the signal segments of the transmitted signals it received and the angle of incidence of the transmitted signals to the first sensor node. receiving signal segments of OFDM-modulated transmitted signals from at least two transmitters (TX SoO1, TX SoO2) by the first and the second sensor nodes, beginning at a time t 1 for a time period t RX; determining the angle of incidence of the transmitted signals to at least one of the sensor nodes; determining the distance between the sensor nodes from the propagation time differences of the transmitted signals of the at least two transmitters received at the first and second sensor nodes; determining the position of the first sensor node (RX 1) relative to the second sensor node (RX 2) from the distance between the sensor nodes and the angle of incidence of the transmitted signals, wherein the sensor nodes determine the time t 1 and time period t RX relative to a reference frequency that is derived from the OFDM-modulated transmitted signal of at least one of the transmitters (TX SoO1, TX SoO2) received by the respective sensor node, wherein the sensor nodes determine the reference frequency by means of a correction signal obtained from the OFDM-modulated transmitted signal and wherein that the position of the first sensor node is determined in the first sensor node, and the second sensor node transmits the signal segments of the transmitted signals it received and the angle of incidence of the transmitted signals to the first sensor node.
A sidewall assembly for an aircraft, the sidewall assembly comprising: a window (112, 114); a sidewall portion having an inner-facing side and at least partially surrounding the window; a transparent display panel coupled to the sidewall portion and covering the inner-facing side of the sidewall portion including the window, the transparent display panel comprising a display screen (118a-b) configured to display information to a passenger; and a display controller in communication with the transparent display panel to communicate a video/audio signal (124, 126) providing the information to the display screen, characterized by: a movable blackout panel that is disposed between the window and the transparent display panel; and a blackout control device that is configured to move the movable blackout panel between a retracted position to allow light to pass between the window and the transparent display panel and an extended position to obstruct light from passing between the window and the transparent display panel, wherein the display controller is configured to provide a command signal to the blackout control device to move the movable blackout panel between the retracted position and the extended position. a window (112, 114); a sidewall portion having an inner-facing side and at least partially surrounding the window; a transparent display panel coupled to the sidewall portion and covering the inner-facing side of the sidewall portion including the window, the transparent display panel comprising a display screen (118a-b) configured to display information to a passenger; and a display controller in communication with the transparent display panel to communicate a video/audio signal (124, 126) providing the information to the display screen, characterized by: a movable blackout panel that is disposed between the window and the transparent display panel; and a blackout control device that is configured to move the movable blackout panel between a retracted position to allow light to pass between the window and the transparent display panel and an extended position to obstruct light from passing between the window and the transparent display panel, wherein the display controller is configured to provide a command signal to the blackout control device to move the movable blackout panel between the retracted position and the extended position. a movable blackout panel that is disposed between the window and the transparent display panel; and a blackout control device that is configured to move the movable blackout panel between a retracted position to allow light to pass between the window and the transparent display panel and an extended position to obstruct light from passing between the window and the transparent display panel, wherein the display controller is configured to provide a command signal to the blackout control device to move the movable blackout panel between the retracted position and the extended position.
A method for providing an endpoint device with access to a remote resource, comprising: establishing, from an intermediate device, a first secure tunnel with the endpoint device, the first secure tunnel terminating within a trusted execution environment, TEE, in a processing unit of the intermediate device, wherein the TEE performs processor-based encryption on instructions and on data used by the instructions during execution of the instructions; receiving, within the TEE and via the first secure tunnel, at least one credential from the endpoint device; transmitting the at least one credential from the intermediate device to the remote resource via a second secure tunnel, the second secure tunnel located between the remote resource and the intermediate device and originating within the TEE; and in response to the at least one credential being accepted by the remote resource, enabling communications between the endpoint device and the remote resource via the TEE in the intermediate device through the first and second secure tunnels. establishing, from an intermediate device, a first secure tunnel with the endpoint device, the first secure tunnel terminating within a trusted execution environment, TEE, in a processing unit of the intermediate device, wherein the TEE performs processor-based encryption on instructions and on data used by the instructions during execution of the instructions; receiving, within the TEE and via the first secure tunnel, at least one credential from the endpoint device; transmitting the at least one credential from the intermediate device to the remote resource via a second secure tunnel, the second secure tunnel located between the remote resource and the intermediate device and originating within the TEE; and in response to the at least one credential being accepted by the remote resource, enabling communications between the endpoint device and the remote resource via the TEE in the intermediate device through the first and second secure tunnels.