mhurhangee/ep-ind-claims huggingface dataset:
A system for injecting fuel into a gas turbine engine, comprising: a turbine combustor, comprising: a primary fuel injection system (19,56); a first wall portion disposed about a primary combustion zone downstream from the primary fuel injection system (19,56); a second wall portion disposed downstream from the first wall portion; and a secondary fuel injection system disposed between the first wall portion and the second wall portion, wherein the secondary fuel injection system is removable from the first and second wall portions (62,64), said secondary fuel injection system comprising a plurality of fuel injectors coupled to a support structure, said support structure comprising an inner wall, an outer wall disposed about the inner wall, and an air passage between the inner and outer walls, characterized in that the secondary fuel injection system is a separate module fuel injection system that is removably coupled to the turbine combustor; the separate module secondary fuel injection system further includes one or more mounts or flanges to removably mount the separate module secondary fuel injection system to the turbine combustor, and in that the secondary fuel injection system comprises an axial mounting recess, wherein said axial mounting recess is axial relative to a central axis of the combustor, the system further comprising a fastener having a central axis extending substantially parallel to the central axis of the turbine combustor and into the axial mounting recess to couple the secondary fuel injection system to the first wall portion or the second wall portion. a primary fuel injection system (19,56); a first wall portion disposed about a primary combustion zone downstream from the primary fuel injection system (19,56); a second wall portion disposed downstream from the first wall portion; and a secondary fuel injection system disposed between the first wall portion and the second wall portion, wherein the secondary fuel injection system is removable from the first and second wall portions (62,64), said secondary fuel injection system comprising a plurality of fuel injectors coupled to a support structure, said support structure comprising an inner wall, an outer wall disposed about the inner wall, and an air passage between the inner and outer walls, characterized in that the secondary fuel injection system is a separate module fuel injection system that is removably coupled to the turbine combustor; the separate module secondary fuel injection system further includes one or more mounts or flanges to removably mount the separate module secondary fuel injection system to the turbine combustor, and in that the secondary fuel injection system comprises an axial mounting recess, wherein said axial mounting recess is axial relative to a central axis of the combustor, the system further comprising a fastener having a central axis extending substantially parallel to the central axis of the turbine combustor and into the axial mounting recess to couple the secondary fuel injection system to the first wall portion or the second wall portion.
Pin-carrier arrangement for a pin of a pivotable storage element on a shopping-trolley chassis, at least comprising - a carrier profile which, at least in a fastening region, has an upper crosspiece, a central crosspiece and a lower crosspiece, which are spaced apart from one another and form a lower chamber and an upper chamber, wherein part of the shopping-trolley chassis can be accommodated in the one chamber and the pin is mounted in the other chamber, and - at least one fastening element having at least two tongues (12, 13) which, in the installed state of the fastening element, enclose the pin between them, wherein - the short tongue engages through through-openings (26, 27) in the upper crosspiece and in the central crosspiece, and - the long tongue engages through through-openings (26, 28, 29) in the upper crosspiece, in the central crosspiece and in the lower crosspiece, and wherein, at their ends, the tongues (12, 13) each have at least one latching protrusion which, in the installed state, engages beneath the central crosspiece and the lower crosspiece, characterized in that the tongues (12, 13) each have: - a latching lug (12.3, 13.3) having an outer run-on slope (12.6, 13.6), which is positioned at an angle of 5°... 30° in relation to the central axis and terminates at the latching protrusion (12.5, 13.5), - and an inner run-on slope (12.4, 13.4), which is arranged on the inner side in each case and extends as far as an accommodating space for the pin, said accommodating space being formed between the tongues (12, 13). - a carrier profile which, at least in a fastening region, has an upper crosspiece, a central crosspiece and a lower crosspiece, which are spaced apart from one another and form a lower chamber and an upper chamber, wherein part of the shopping-trolley chassis can be accommodated in the one chamber and the pin is mounted in the other chamber, and - at least one fastening element having at least two tongues (12, 13) which, in the installed state of the fastening element, enclose the pin between them, wherein - the short tongue engages through through-openings (26, 27) in the upper crosspiece and in the central crosspiece, and - the long tongue engages through through-openings (26, 28, 29) in the upper crosspiece, in the central crosspiece and in the lower crosspiece, - a latching lug (12.3, 13.3) having an outer run-on slope (12.6, 13.6), which is positioned at an angle of 5°... 30° in relation to the central axis and terminates at the latching protrusion (12.5, 13.5), - and an inner run-on slope (12.4, 13.4), which is arranged on the inner side in each case and extends as far as an accommodating space for the pin, said accommodating space being formed between the tongues (12, 13).
A method of network selection for a wireless user device in radio communication with a first access point of one or more networks, via at least one of a plurality of access points (3, 5, 6), characterized by the method comprising sending a network selection request from the wireless user device to the first access point; wherein if the network wishes to initiate a response (7, 8) from another access point (5, 6) in the same or another network, the first access point forwards (13, 14) the network selection request to one or more neighbouring access points (5, 6), in the same or another network; wherein if any of the neighbouring access points (5, 6) is able to communicate with the user device, that neighbouring access point (5, 6) sends a response (7, 8) directly to the wireless user device; and wherein the wireless user device chooses the most suitable network from the responses (5, 7, 8) sent.
Refrigeration device, in particular domestic refrigeration device, comprising a storage compartment and a container separated from the storage compartment, wherein at least one closure part (19; 15) of the container may be displaced between an open and a closed position, wherein the container in the open position of the closure part (19; 15) communicates with a high pressure region and a low pressure region of the storage compartment, wherein the closure part is a lid of the container, which in the open position is raised from a tray of the container, characterised in that the lid is suspended from a horizontal wall extending over said lid, that a slider guided in a horizontally movable manner is provided in order to displace the lid vertically and that, of the lid and slider, one has an oblique guide contour and the other has an element cooperating with the guide contour and displaceable relative to the guide contour, that the slider is attached to a front edge of the horizontal wall and that the guide contour extends obliquely in a horizontal plane, wherein the slider has a finger as a displaceable element and the lid has a slot as a guide contour.
Flat-type electrical storage water heater, comprising: - at least two tanks (2.D, 2.S) connected in parallel to each other, one of them being an upstream tank (2.D) and one of them being a downstream tank (2.S), - one outer casing (1.1) housing said at least two tanks (2.D, 2.S), having an upper cover (1.3) and a lower cover (1.4), - one cold water tube in the upstream tank (2.D) of said at least two tanks (2.D, 2.S), adapted for the introduction of cold water at the bottom level of said upstream tank (2.D) and having the inlet (3.1) on said lower cover (1.4), - one hot water tube in the downstream tank (2.S) of said at least two tanks (2.D, 2.S), adapted to draw the hot water from the dome of said downstream tank (2.S) and having the outlet (4.1) on said lower cover (1.4), - at least one electrical resistance and at least one anti-corrosion anode, characterised in that said at least two tanks (2.D, 2.S) are connected in parallel to each other by direct reciprocal coupling means comprising at least two opposed pairs of plane bosses (6.D, 6.S) made by moulding on adjacent shells of said at least two tanks (2.D, 2.S), at the same distance on the longitudinal axis of said shells so as to be axially aligned, each of said plane bosses (6.D; 6.S) comprising an opening (6.DA; 6.SA) circumscribed by a collar (6.DB; 6.SB), slightly projecting from the surface of such shell and jointed thereto by jointing portions (6.DR; 6.SR), said collar (6.DB; 6.SB) being adapted to couple directly with the collar (6.SB; 6.DB) of the opposite plane boss (6.S; 6.D) of the adjacent tank (2.S, 2.D). - at least two tanks (2.D, 2.S) connected in parallel to each other, one of them being an upstream tank (2.D) and one of them being a downstream tank (2.S), - one outer casing (1.1) housing said at least two tanks (2.D, 2.S), having an upper cover (1.3) and a lower cover (1.4), - one cold water tube in the upstream tank (2.D) of said at least two tanks (2.D, 2.S), adapted for the introduction of cold water at the bottom level of said upstream tank (2.D) and having the inlet (3.1) on said lower cover (1.4), - one hot water tube in the downstream tank (2.S) of said at least two tanks (2.D, 2.S), adapted to draw the hot water from the dome of said downstream tank (2.S) and having the outlet (4.1) on said lower cover (1.4), - at least one electrical resistance and at least one anti-corrosion anode, said at least two tanks (2.D, 2.S) are connected in parallel to each other by direct reciprocal coupling means comprising at least two opposed pairs of plane bosses (6.D, 6.S) made by moulding on adjacent shells of said at least two tanks (2.D, 2.S), at the same distance on the longitudinal axis of said shells so as to be axially aligned, each of said plane bosses (6.D; 6.S) comprising an opening (6.DA; 6.SA) circumscribed by a collar (6.DB; 6.SB), slightly projecting from the surface of such shell and jointed thereto by jointing portions (6.DR; 6.SR), said collar (6.DB; 6.SB) being adapted to couple directly with the collar (6.SB; 6.DB) of the opposite plane boss (6.S; 6.D) of the adjacent tank (2.S, 2.D).
Drive device for an electrified vehicle axle of a two-track vehicle, having a drive assembly in which an electric machine outputs drive to vehicle wheels via a transmission, wherein the electric machine is arranged in a transversely installed manner in the vehicle axle, wherein a stator housing of the electric machine is extended axially in the vehicle transverse direction (y) by a transmission housing, and wherein the drive assembly is supported with three-point mounting in the vehicle body via three assembly bearings (53, 54, 55), wherein, for support of torque with regard to reaction forces (F R), the three-point mounting has two transmission-side assembly bearings (53, 54) via which the transmission housing is supported in the vehicle body, wherein the transmission housing is constructed from two housing parts, which are arranged axially one behind the other in the vehicle transverse direction (y), specifically from an intermediate housing, which is flange-mounted on the stator housing, and a housing cover, which closes the transmission-housing interior space, wherein the housing cover and the intermediate housing have respective bearing walls (31, 33), which are situated axially opposite one another, wherein transmission shafts (11, 12, 15) and flange shafts (5, 7) are mounted rotatably in the bearing walls (31, 33) of the housing cover and the intermediate housing, wherein the first transmission-side assembly bearing is formed on the housing cover, and wherein the second transmission-side assembly bearing is formed on the intermediate housing, characterized in that each of the assembly bearings (53, 54) is in the form of a rubber/metal sleeve bearing which is pressed in a fastening eyelet of the transmission housing, in that the first transmission-side assembly bearing is in a bearing-wall plane of the housing cover, and/or in that the second transmission-side assembly bearing is in a bearing-wall plane of the intermediate housing.
A mixing device intended to be integrated into an exhaust line of a heat engine, upstream of a selective reduction catalyst SCR, said mixing device including a mixing chamber, provided with an inlet and an outlet to permit a flow of the exhaust gases, and an orifice, communicating with said mixing chamber, through which a urea solution is injected, in the form of a jet projected on impactors distributed within said mixing chamber, said mixing device being characterized in that it includes in addition: - a grid disposed on said outlet of said mixing chamber, and - heating elements (45, 47) integrated respectively to the impactors and to said grid. - a grid disposed on said outlet of said mixing chamber, and - heating elements (45, 47) integrated respectively to the impactors and to said grid.
FcRn binding dimer, comprising a first monomer unit, a second monomer unit and an amino acid linker, wherein said first and second monomer unit each comprises an FcRn binding motif BM, which motif consists of the amino acid sequence EX 2 X 3 X 4 AX 6 X 7 EIR WLPNLX 16 X 17 X 18 QR X 21 AFIX 25 X 26 LX 28 X 29 wherein, independently from each other, X 2 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; X 3 is selected from A, D, E, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 4 is selected from A, D, E, F, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 6 is selected from A, E, F, G, H, I, K, Q, R, S and V; X 7 is selected from A, F, H, K, N, Q, R, S and V; X 16 is selected from N and T; X 17 is selected from F, W and Y; X 18 is selected from A, D, E and N; X 21 is selected from A, S, V and W; X 25 is selected from D, E, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 26 is selected from K and S; X 28 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; and X 29 is selected from D and R, and wherein said FcRn binding dimer binds FcRn with a higher binding capacity compared to said first monomer or said second monomer alone.
Shielding element which is designed to enclose a drive train or a component thereof, wherein towards its outside the shielding element has a metallic reflection layer with an adjoining thermal insulation layer which is provided with a heating system, wherein the heating system comprises at least one heating element for active electrical heating of a drive train or a component thereof, and wherein the heating element is arranged in, at or on the insulation layer of the thermal and acoustic shielding element to face outwardly on the drive train or a component thereof to be heated in an installation position, characterized in that the at least one heating element based on nickel-chromium alloys is designed for higher temperature ranges above about 180°C up to high temperature ranges of about 1,000°C, wherein a metallic foil is provided as a reflective layer on a side facing away from the component to be heated. the at least one heating element based on nickel-chromium alloys is designed for higher temperature ranges above about 180°C up to high temperature ranges of about 1,000°C, wherein a metallic foil is provided as a reflective layer on a side facing away from the component to be heated.
Reception arrangement (3, 3') for a controller in a vehicle, wherein the reception arrangement comprises a voltage generator (30, 30') for generating a synchronization pulse (P sync), which comprises a first voltage source (3.1), a current source (3.5) and a current sink (3.6), wherein the voltage generator (30, 30') generates the synchronization pulse (P sync) within predefined specification limits (Vo, Vu) with a predefined shape and a predefined temporal behaviour, and wherein the reception arrangement (3, 3') outputs the synchronization pulse (P sync) for synchronizing a subsequent signal transmission between the reception arrangement (3, 3') and at least one sensor to the at least one sensor via a data bus, wherein the voltage generator (30, 30') generates the synchronization pulse (P sync) substantially as a sinusoidal oscillation using the current source (3.5) and the current sink (3.6) by charging and/or discharging a bus load present on the data bus, wherein the voltage generator (30, 30') comprises at least one digital drive circuit (32, 42) and at least one digital-to-analogue converter (34, 44) that generate a substantially sinusoidal reference current and output it to the current source (3.5) and the current sink (3.6) in order to generate the synchronization pulse (P sync), wherein the at least one digital drive circuit (32, 42) regulates the synchronization pulse (P sync) based on a quiescent current (I 0) on the data bus and the bus load, wherein quiescent current regulation provides a measure of the quiescent current (I 0) and a reached synchronization pulse amplitude (Max) provides a measure of the bus load, wherein the synchronization pulse amplitude (Max) is able to be determined by assessing the bus voltage (U Bus).
A computer implemented method for warping virtual content in a mixed reality system for display with a real physical object, wherein the virtual content includes image information and a source X, Y, and Z location in a source frame of reference, the method comprising: generating warped virtual content by transforming source virtual content; determining whether a memory location corresponding to an X, Y location of the warped virtual content in an output frame of reference is occupied by pre-existing virtual content; storing the warped virtual content in the memory location if the memory location is not occupied by the pre-existing virtual content; comparing respective Z locations of the warped virtual content and the pre-existing virtual content to identify virtual content with a Z location closer to a viewing location in the output frame of reference if the memory location is occupied by the pre-existing virtual content; and storing the warped virtual content in the memory location corresponding to the X, Y location if a Z location of the warped virtual content is closer to the viewing location than a pre-existing Z location of the pre-existing virtual content in the output frame of reference; wherein generating the warped virtual content, determining whether the memory location is occupied, comparing the respective Z locations of the warped virtual content and the pre-existing virtual content if the memory location is occupied, and storing the warped virtual content in the memory location all occur in a single pass. generating warped virtual content by transforming source virtual content; determining whether a memory location corresponding to an X, Y location of the warped virtual content in an output frame of reference is occupied by pre-existing virtual content; storing the warped virtual content in the memory location if the memory location is not occupied by the pre-existing virtual content; comparing respective Z locations of the warped virtual content and the pre-existing virtual content to identify virtual content with a Z location closer to a viewing location in the output frame of reference if the memory location is occupied by the pre-existing virtual content; and storing the warped virtual content in the memory location corresponding to the X, Y location if a Z location of the warped virtual content is closer to the viewing location than a pre-existing Z location of the pre-existing virtual content in the output frame of reference; wherein generating the warped virtual content, determining whether the memory location is occupied, comparing the respective Z locations of the warped virtual content and the pre-existing virtual content if the memory location is occupied, and storing the warped virtual content in the memory location all occur in a single pass.
A method of operating a memory device, comprising: receiving, at a command decoder of the memory device, a timing signal (XCLK: 100) comprising a plurality of clock cycles (t ck); generating, by the command decoder, an activate command signal (ACT: 102; 202) every several clock cycles, which activate command signal (ACT: 102; 202) is high for one clock cycle (t ck) of the timing signal (XCLK: 100) or less; generating, by an active driver (37; 200), a bank activate signal (BACTQ), based on the activate command signal (ACT: 102; 202) and the internal bank address signal (BKn: 106; 204), to instruct a row decoder to activate a bank in the memory device; characterised in that: the internal bank address signal (BKn: 106; 204), at the active driver (37; 200), is high for a duration that is longer than one clock cycle (t ck) of the timing signal (XCLK: 100). receiving, at a command decoder of the memory device, a timing signal (XCLK: 100) comprising a plurality of clock cycles (t ck); generating, by the command decoder, an activate command signal (ACT: 102; 202) every several clock cycles, which activate command signal (ACT: 102; 202) is high for one clock cycle (t ck) of the timing signal (XCLK: 100) or less; generating, by an active driver (37; 200), a bank activate signal (BACTQ), based on the activate command signal (ACT: 102; 202) and the internal bank address signal (BKn: 106; 204), to instruct a row decoder to activate a bank in the memory device; characterised in that: the internal bank address signal (BKn: 106; 204), at the active driver (37; 200), is high for a duration that is longer than one clock cycle (t ck) of the timing signal (XCLK: 100). the internal bank address signal (BKn: 106; 204), at the active driver (37; 200), is high for a duration that is longer than one clock cycle (t ck) of the timing signal (XCLK: 100).
A heteroaromatic-containing compound, represented by the following general formula: wherein R 1 and R 2 are each a hydrogen atom; Ar 1 is a phenyl group; and A is an aromatic group comprising a structure represented by the following general formula: or the following general formula: wherein R 3 to R 7 are one combination selected from the combination group consisting of: R 3 and R 7 are a methyl group, and R 4, R 5, and R 6 are a hydrogen atom; R 3, R 5, and R 7 are a methyl group, and R 4 and R 6 are a hydrogen atom; R 3 is a methyl group, and R 4, R 5, R 6, and R 7 are a hydrogen atom; R 3 and R 5 are Y, and R 4, R 6, and R 7 are a hydrogen atom; R 3 is Y, and R 4, R 5, R 6, and R 7 are a hydrogen atom; R 3 is Y, R 4, R 5, and R 7 are a hydrogen atom, and R 6 is a methyl group; R 3 and R 7 are a methyl group, R 4 and R 6 are a hydrogen atom, and R 5 is Y; and R 3 is Y, R 4 is X, R 5 and R 7 are a hydrogen atom, and R 6 is a methyl group; wherein X is a bonding to a further carbon atom of general formula, having an oxygen atom double-bonded therewith, in a case where two or more of the structures represented by the general formula, having a common aromatic group A, are present in the same molecule; and Y is a group comprising a structure represented by the following general formula: wherein R 8 is a hydrogen atom or a methyl group; and n is 0 or 1.