mhurhangee/ep-ind-claims huggingface dataset:
An antenna calibration method, wherein the method comprises: a network-side apparatus performing uplink channel measurement and determining an uplink channel matrix; the network-side apparatus determining calibration coefficients based on the uplink channel matrix and a received first weight matrix from a user equipment; and the network-side apparatus performing antenna calibration based on the determined calibration coefficients; wherein if the network-side apparatus receives one first weight matrix, the network-side apparatus determines the calibration coefficients by the equation of: E = arg max F ‖ G UL T diag V F ‖ 2. wherein E represents the determined calibration coefficients; G UL T represents the transposed uplink channel matrix; V = [ v 1, v 2,..., v N] T represents the first weight matrix; F = [ f 1, f 2,..., f N] T represents functional variables; and diag V = v 1 0 ⋯ 0 0 v 2 0 0 ⋮ 0 ⋱ ⋮ 0 0 ⋯ v N represents a diagonal matrix built from the first weight matrix. a network-side apparatus performing uplink channel measurement and determining an uplink channel matrix; the network-side apparatus determining calibration coefficients based on the uplink channel matrix and a received first weight matrix from a user equipment; and the network-side apparatus performing antenna calibration based on the determined calibration coefficients; wherein if the network-side apparatus receives one first weight matrix, the network-side apparatus determines the calibration coefficients by the equation of: E = arg max F ‖ G UL T diag V F ‖ 2. wherein E represents the determined calibration coefficients; G UL T represents the transposed uplink channel matrix; V = [ v 1, v 2,..., v N] T represents the first weight matrix; F = [ f 1, f 2,..., f N] T represents functional variables; and diag V = v 1 0 ⋯ 0 0 v 2 0 0 ⋮ 0 ⋱ ⋮ 0 0 ⋯ v N represents a diagonal matrix built from the first weight matrix.
A communications method, comprising: receiving, by a terminal, information about one or more cell groups, wherein one cell group comprises one first cell and at least one second cell; and for the cell group, determining carrier bandwidth part, BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group, wherein the determining BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group comprises: if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires. receiving, by a terminal, information about one or more cell groups, wherein one cell group comprises one first cell and at least one second cell; and for the cell group, determining carrier bandwidth part, BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group, wherein the determining BWP switching or a deactivated state of the second cell in the cell group based on BWP switching or a deactivated state of the first cell in the cell group comprises: if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires. if it is determined to switch a BWP of the first cell in the cell group from a first BWP of the first cell to a second BWP of the first cell, switching a BWP of the second cell in the cell group from a first BWP of the second cell to a second BWP of the second cell, wherein each first BWP is a non-default BWP, each second BWP is a default BWP, and each the default BWP is an active BWP on which the terminal works after a BWP fallback timer expires.
Photodetector arrangement having adjustable output, comprising: - a photodetector comprising an array of pixels wherein each pixel (10, 12, 14, 16) is arranged to convert electromagnetic radiation into an analog detection data signal, respectively, - a readout circuit coupled to the photodetector and comprising a receiving component and a combining component, wherein the receiving component is arranged to read out detection data signals, to select at least one detection data signal depending on a control signal and to adjust gain and polarity of the selected detection data signal, and wherein the combining component is arranged to combine the detection data signals into one or more output signals to be provided at one or more output terminals (211, 212, 213, 214, 215), wherein combination of detection data signals and adjustments of gain and polarity is done in the analog domain, and the analog detection data signals are adjusted and combined into an overall adjusted sensor response OUT_adj, wherein the overall adjusted sensor response OUT_adj is adjusted with the photodetector arrangement arranged under a glass cover of an electronic device, and - a control unit coupled to the readout circuit via a control terminal and arranged to provide the control signal at the readout circuit depending on a set of instructions, wherein the control signal alters the one or more output signals to closely match or approximate a photopic and/or scotopic target function. - a photodetector comprising an array of pixels wherein each pixel (10, 12, 14, 16) is arranged to convert electromagnetic radiation into an analog detection data signal, respectively, - a readout circuit coupled to the photodetector and comprising a receiving component and a combining component, wherein the receiving component is arranged to read out detection data signals, to select at least one detection data signal depending on a control signal and to adjust gain and polarity of the selected detection data signal, and wherein the combining component is arranged to combine the detection data signals into one or more output signals to be provided at one or more output terminals (211, 212, 213, 214, 215), wherein combination of detection data signals and adjustments of gain and polarity is done in the analog domain, and the analog detection data signals are adjusted and combined into an overall adjusted sensor response OUT_adj, wherein the overall adjusted sensor response OUT_adj is adjusted with the photodetector arrangement arranged under a glass cover of an electronic device, and - a control unit coupled to the readout circuit via a control terminal and arranged to provide the control signal at the readout circuit depending on a set of instructions, wherein the control signal alters the one or more output signals to closely match or approximate a photopic and/or scotopic target function.
An Autologous Bone Graft Substitute composition for inducing new bone formation, promoting bone growth and treating of bone defect, wherein the composition comprises: (i) autologous blood; (ii) an osteogenic bone morphogenetic protein selected from the group consisting of BMP-6, BMP-2, BMP-7, BMP-4, BMP-5, BMP-8, BMP-9, BMP-12, and BMP-13, heterodimers thereof, and combinations thereof, in a range from 0,002 to 1 mg per ml of autologous blood; and (iii) a compression resistant matrix, the compression resistant matrix is selected from the group consisting of a bone allograft, hydroxyapatite, tri- calcium phosphate, and combinations thereof; wherein the autologous blood forms a coagulum gel comprising the osteogenic bone morphogenetic protein within fibrin-meshwork and reinforced with the compression resistant matrix. (i) autologous blood; (ii) an osteogenic bone morphogenetic protein selected from the group consisting of BMP-6, BMP-2, BMP-7, BMP-4, BMP-5, BMP-8, BMP-9, BMP-12, and BMP-13, heterodimers thereof, and combinations thereof, in a range from 0,002 to 1 mg per ml of autologous blood; and (iii) a compression resistant matrix, the compression resistant matrix is selected from the group consisting of a bone allograft, hydroxyapatite, tri- calcium phosphate, and combinations thereof;
A positive electrode active material containing a compound having an olivinic structure represented by the general formula Li x Mn y B 1-y PO 4, wherein 0 < x ≤ 1 and 0.5 ≤ y < 0.95 and wherein B denotes plural metal elements selected from among Ti, Fe, Zn, Mg and Co, wherein the Li x Mn y B 1-y PO 4 has a grain size not larger than 10 μ m, with the Brunauer-Emmett-Teller specific surface area being not less than 0.5 m 2 /g.
Hydrostatic transmission apparatus (10, 100, 200) comprising at least a first elementary motor (22A, 1A) fed via a feed enclosure (22A, G2) and from which fluid is discharged via a discharge enclosure (22B, G1), and a cylinder capacity selector (50, 160), the cylinder capacity selector being suitable for taking up a bypass position, in which said feed enclosure is put into communication with said discharge enclosure via a bypass link, the apparatus further comprising constriction means (70, 72) for constricting said bypass link, and being characterized in that, when the selector is in the bypass position, said constriction means are suitable for being activated to restrict the flow of fluid through the bypass link when a discharge pressure prevailing in the discharge enclosure exceeds a constriction threshold, said threshold being a function of a control pressure prevailing in a control chamber, and said constriction means are suitable for being deactivated to enable fluid to flow substantially freely through the bypass link when the discharge pressure is less than said constriction threshold.
A vehicle braking apparatus comprising: brake operating means for receiving a brake command from a driver of a vehicle; fluid pressure generating means for generating a fluid pressure in accordance with the brake command; and control means for calculating a target deceleration rate in accordance with the fluid pressure generated by the fluid pressure generating means and for controlling a braking force of the vehicle in accordance with the target deceleration rate; characterized in that the apparatus further comprises control limiting means for limiting a decrease in the target deceleration rate when the fluid pressure decreases while an operation amount of the brake operating means increases during an abrupt deceleration caused by the brake command. brake operating means for receiving a brake command from a driver of a vehicle; fluid pressure generating means for generating a fluid pressure in accordance with the brake command; and control means for calculating a target deceleration rate in accordance with the fluid pressure generated by the fluid pressure generating means and for controlling a braking force of the vehicle in accordance with the target deceleration rate; characterized in that the apparatus further comprises control limiting means for limiting a decrease in the target deceleration rate when the fluid pressure decreases while an operation amount of the brake operating means increases during an abrupt deceleration caused by the brake command.
A seat back tray assembly adapted to be mounted onto the back of a passenger seat for a passenger aircraft and movable between a first storage position and a second deployed position, said seat back tray assembly comprising: (a) a tray having a first and second attachment arm (32a, 32b) mounted onto said tray for installing said tray onto the back of a seat system; (b) a sliding mechanism comprising a rail and guide assembly, and installed on said first and second attachment arms (32a, 32b) adapted for providing movement between a first forward position and a second aft position to a seated passenger parallel to said first and second attachment arms; and (c) an alignment mechanism comprising a pulley assembly, and attached to said sliding mechanism for maintaining said tray in a horizontally aligned relationship during said movement. (a) a tray having a first and second attachment arm (32a, 32b) mounted onto said tray for installing said tray onto the back of a seat system; (b) a sliding mechanism comprising a rail and guide assembly, and installed on said first and second attachment arms (32a, 32b) adapted for providing movement between a first forward position and a second aft position to a seated passenger parallel to said first and second attachment arms; and (c) an alignment mechanism comprising a pulley assembly, and attached to said sliding mechanism for maintaining said tray in a horizontally aligned relationship during said movement.
A molten metal impeller comprised of a generally cylindrical graphite body including a plurality of vanes defining passages extending from a top or bottom surface to a side wall, a ceramic cap member secured to the surface of said graphite body, said cap member being comprised of a plurality of vanes at least substantially corresponding to said plurality of graphite body vanes and extending to a rim, said rim having segments between adjacent vanes, characterized in that the segments having a height profile which increases in the direction of intended impeller rotation.
A front vehicle body structure comprising: an underbody; an upper body coupled to the underbody; a front cowl disposed in front of the upper body; and a cowl support unit connected to the front cowl through a front pillar and a front side member of the upper body, wherein the cowl support unit comprises: a cowl lower cross member connected to a front of the front side member along a vehicle width direction; a cowl lower support connected to the cowl lower cross member and the front cowl; a cowl upper side support connecting an upper portion of the front pillar and the front cowl; a cowl lower side support connected to a lower portion of the cowl upper side support and to the front pillar; and a fender apron upper member connected to the cowl lower support and the front pillar, wherein the front vehicle body structure further comprises: a front floor panel mounted on the upper body; a floor upper coupled to the front floor panel; and a floor reinforcement frame disposed along a front-rear direction on the floor upper. an underbody; an upper body coupled to the underbody; a front cowl disposed in front of the upper body; and a cowl support unit connected to the front cowl through a front pillar and a front side member of the upper body, wherein the cowl support unit comprises: a cowl lower cross member connected to a front of the front side member along a vehicle width direction; a cowl lower support connected to the cowl lower cross member and the front cowl; a cowl upper side support connecting an upper portion of the front pillar and the front cowl; a cowl lower side support connected to a lower portion of the cowl upper side support and to the front pillar; and a fender apron upper member connected to the cowl lower support and the front pillar, wherein the front vehicle body structure further comprises: a front floor panel mounted on the upper body; a floor upper coupled to the front floor panel; and a floor reinforcement frame disposed along a front-rear direction on the floor upper. a cowl lower cross member connected to a front of the front side member along a vehicle width direction; a cowl lower support connected to the cowl lower cross member and the front cowl; a cowl upper side support connecting an upper portion of the front pillar and the front cowl; a cowl lower side support connected to a lower portion of the cowl upper side support and to the front pillar; and a fender apron upper member connected to the cowl lower support and the front pillar, wherein the front vehicle body structure further comprises: a front floor panel mounted on the upper body; a floor upper coupled to the front floor panel; and a floor reinforcement frame disposed along a front-rear direction on the floor upper. a front floor panel mounted on the upper body; a floor upper coupled to the front floor panel; and a floor reinforcement frame disposed along a front-rear direction on the floor upper.
A method, comprising: forming a plurality of polymer layers via a plurality of slots, wherein each slot of the plurality of slots includes a first end, a second end, and an elongated opening extending from the first end and the second end in a cross-web direction; controlling heat flow to an edge of at least one of the first end or the second end of each slot of the plurality of the slots in conjunction with the formation of the plurality of polymer layers; and combining the plurality of polymer layers to generate a multilayer polymer flow stream, wherein the heat flow to the edge of the at least one of the first end or the second end controls a cross-web layer thickness profile of a multilayer polymer film generated from the multilayer polymer flow stream; wherein controlling the heat flow to the edge of the at least one of the first end or the second end of each slot of the plurality of the slots comprises controlling the heat flow to the first end of each slot, wherein the heat flow is controlled via at least one heater (54a, 54b) located adjacent the first end of each slot, and wherein the first end is between the at least one heater (54a, 54b) and the elongated opening of each slot. forming a plurality of polymer layers via a plurality of slots, wherein each slot of the plurality of slots includes a first end, a second end, and an elongated opening extending from the first end and the second end in a cross-web direction; controlling heat flow to an edge of at least one of the first end or the second end of each slot of the plurality of the slots in conjunction with the formation of the plurality of polymer layers; and combining the plurality of polymer layers to generate a multilayer polymer flow stream, wherein the heat flow to the edge of the at least one of the first end or the second end controls a cross-web layer thickness profile of a multilayer polymer film generated from the multilayer polymer flow stream; wherein controlling the heat flow to the edge of the at least one of the first end or the second end of each slot of the plurality of the slots comprises controlling the heat flow to the first end of each slot, wherein the heat flow is controlled via at least one heater (54a, 54b) located adjacent the first end of each slot, and wherein the first end is between the at least one heater (54a, 54b) and the elongated opening of each slot.
An apparatus comprising: a supply assembly configured to maintain and selectively dispense a first precursor and a second precursor, wherein the first precursor possesses an azide group and the second precursor possesses an alkyne group; a mixing assembly configured to mix the first and second precursors, the mixing assembly including an elongate member having substantially open proximal and distal ends, and a mixing cavity extending therebetween; characterized in that the mixing assembly further includes a plurality of mixing elements extending the length of the mixing cavity and forming substantially helical members or including multiple planar or curved blades or a single helical screw, the mixing elements being arranged in an alternating orientation to increase the turbulence of first and second precursors as the precursors flow through the mixing cavity, any or all of mixing elements including a transition metal ion catalyst coating configured to catalyze the mixture flowing through mixing assembly. a supply assembly configured to maintain and selectively dispense a first precursor and a second precursor, wherein the first precursor possesses an azide group and the second precursor possesses an alkyne group; a mixing assembly configured to mix the first and second precursors, the mixing assembly including an elongate member having substantially open proximal and distal ends, and a mixing cavity extending therebetween; characterized in that the mixing assembly further includes a plurality of mixing elements extending the length of the mixing cavity and forming substantially helical members or including multiple planar or curved blades or a single helical screw, the mixing elements being arranged in an alternating orientation to increase the turbulence of first and second precursors as the precursors flow through the mixing cavity, any or all of mixing elements including a transition metal ion catalyst coating configured to catalyze the mixture flowing through mixing assembly.
A passively operating mechanical functional unit (1, 10, 10') for a shock wave protection valve (100, 200, 300), in particular for a ventilation system, comprising: a) a flow channel (2, 12, 12') with a through-flow region (4, 14, 14') through which a ventilation flow is able to flow in a direction of flow and which, in the event of a disruption, is able to be blocked in a blocking direction as a result of a shock wave propagating in the blocking direction, b) a leaf-like valve flap (7, 17, 17') which is held in an open position and which, in the event of a disruption, is able to be deflected by the shock wave, at least partially transversely to the direction of flow into the through-flow region (4, 14, 14'), into a closed position in which the through-flow region (4, 14, 14') is blocked in the blocking direction by the valve flap (7, 17, 17'), whereby c) the valve flap (7, 17, 17') is arranged between a stagnation space (5, 15), arranged in the flow channel (2, 12, 12') and open counter to the blocking direction, and the through-flow region (4, 14, 14') such that, d) in the event of a disruption, as the shock wave passes through, a pressure is able to be built up in the stagnation space (5, 15), which pressure pushes the valve flap (7, 17, 17') at least partially transversely to the direction of flow and deflects it into the through-flow region (4, 14, 14') such that the valve flap (7, 17, 17') passes into the closed position, characterized in that e) the valve flap (7, 17, 17') is oriented substantially in the direction of flow in the open position. a) a flow channel (2, 12, 12') with a through-flow region (4, 14, 14') through which a ventilation flow is able to flow in a direction of flow and which, in the event of a disruption, is able to be blocked in a blocking direction as a result of a shock wave propagating in the blocking direction, b) a leaf-like valve flap (7, 17, 17') which is held in an open position and which, in the event of a disruption, is able to be deflected by the shock wave, at least partially transversely to the direction of flow into the through-flow region (4, 14, 14'), into a closed position in which the through-flow region (4, 14, 14') is blocked in the blocking direction by the valve flap (7, 17, 17'), whereby c) the valve flap (7, 17, 17') is arranged between a stagnation space (5, 15), arranged in the flow channel (2, 12, 12') and open counter to the blocking direction, and the through-flow region (4, 14, 14') such that, d) in the event of a disruption, as the shock wave passes through, a pressure is able to be built up in the stagnation space (5, 15), which pressure pushes the valve flap (7, 17, 17') at least partially transversely to the direction of flow and deflects it into the through-flow region (4, 14, 14') such that the valve flap (7, 17, 17') passes into the closed position, characterized in that e) the valve flap (7, 17, 17') is oriented substantially in the direction of flow in the open position.