mhurhangee/ep-ind-claims huggingface dataset:
A multi-receiving terminal echo cancellation method suitable for use in a communication apparatus comprising M receiving terminals, M being a natural number greater than or equal to 2, wherein method comprises: performing echo filtering on receiving terminal signals in M channels by means of echo filters to obtain filtered receiving terminal signals in M channels, and subtracting the filtered receiving terminal signals in M channels from a sending terminal signal to obtain a system output signal in which receiving terminal echoes have been cancelled; buffering the receiving terminal signals in M channels by means of buffers at the same time, calculating a decorrelation matrix according to each of the receiving terminal signals in M channels that are buffered within a preset length, decomposing the buffered receiving terminal signals in M channels into decorrelated receiving terminal signals in M channels by means of the decorrelation matrix, and calculating update amounts of the echo filters, according to the decorrelation matrix, the decorrelated receiving terminal signals in M channels and the system output signal that is fed back, and outputting the update amounts to the corresponding echo filters. performing echo filtering on receiving terminal signals in M channels by means of echo filters to obtain filtered receiving terminal signals in M channels, and subtracting the filtered receiving terminal signals in M channels from a sending terminal signal to obtain a system output signal in which receiving terminal echoes have been cancelled; buffering the receiving terminal signals in M channels by means of buffers at the same time, calculating a decorrelation matrix according to each of the receiving terminal signals in M channels that are buffered within a preset length, decomposing the buffered receiving terminal signals in M channels into decorrelated receiving terminal signals in M channels by means of the decorrelation matrix, and calculating update amounts of the echo filters, according to the decorrelation matrix, the decorrelated receiving terminal signals in M channels and the system output signal that is fed back, and outputting the update amounts to the corresponding echo filters.
A detection apparatus comprising a) an array of electrically responsive pads on a substrate surface; b) an array of detection pixels, wherein each individual detection pixel in the array has a detection zone on the surface, each detection pixel configured to simultaneously observe a subset of at least two of the electrically responsive pads; and c) an activation circuit to apply electric field at a first pad in the subset and a second pad in the subset, wherein the activation circuit is configured to apply different electric field at the first pad compared to the second pad, and wherein the activation circuit comprises a switch to selectively alter the electric field at the first pad compared to the second pad, wherein the pads comprise target analytes to be detected. a) an array of electrically responsive pads on a substrate surface; b) an array of detection pixels, wherein each individual detection pixel in the array has a detection zone on the surface, each detection pixel configured to simultaneously observe a subset of at least two of the electrically responsive pads; and c) an activation circuit to apply electric field at a first pad in the subset and a second pad in the subset, wherein the activation circuit is configured to apply different electric field at the first pad compared to the second pad, and wherein the activation circuit comprises a switch to selectively alter the electric field at the first pad compared to the second pad, wherein the pads comprise target analytes to be detected.
Holding or support assembly for a timepiece balance spring, comprising a balance spring stud and a stud-holder arranged to be mounted on a balance-cock, where said stud-holder comprises a base having at least one circular portion, said base comprising, on said circular portion, a first lug and a second lug each extending radially, the first lug and the second lug being angularly separated by an angle of less than 180 degrees, one of the two lugs comprising an elastic arm extending from the stud, in a direction parallel to that of the base, towards the other lug, characterized in that said elastic arm forms with said base a housing for housing the balance spring stud and in that said first and second lugs are able to cooperate with a tool to apply a stress (P, P') on the balance spring stud which pass the stress (P, P') on to the elastic arm to deform the latter and permit the assembly or disassembly of said stud.
A package for holding a product, the package comprising: a carton comprising a plurality of panels (23, 25, 31, 37, 83) at least partially enclosing an interior of the carton; a liner at least partially positioned in the interior of the carton, the liner comprising an inner dispensing feature; and a liner patch overlapping the inner dispensing feature, and the liner patch being mounted on the liner for facilitating opening of the inner dispensing feature, the inner dispensing feature comprises an inner dispenser panel at least partially defined by a separating line in the liner, and the liner comprises a sealing portion adjacent the separating line, the liner patch overlaps the sealing portion of the liner, characterized in that the inner dispensing feature comprises at least one expansion line extending from the separating line in the sealing portion of the liner, wherein removal of the inner dispenser panel forms an initial opening and portions of the sealing portion can be separated at the at least one expansion line to expand the initial opening after the opening of the inner dispensing feature. a carton comprising a plurality of panels (23, 25, 31, 37, 83) at least partially enclosing an interior of the carton; a liner at least partially positioned in the interior of the carton, the liner comprising an inner dispensing feature; and a liner patch overlapping the inner dispensing feature, and the liner patch being mounted on the liner for facilitating opening of the inner dispensing feature, the inner dispensing feature comprises an inner dispenser panel at least partially defined by a separating line in the liner, and the liner comprises a sealing portion adjacent the separating line, the liner patch overlaps the sealing portion of the liner, characterized in that the inner dispensing feature comprises at least one expansion line extending from the separating line in the sealing portion of the liner, wherein removal of the inner dispenser panel forms an initial opening and portions of the sealing portion can be separated at the at least one expansion line to expand the initial opening after the opening of the inner dispensing feature.
A stiffener runout, comprising: a web configured in a substantially vertical orientation and including a front surface, a rear surface, a bottom edge, and a web termination point positioned at an outermost location of the web; and a base flange, comprising a first flange portion adjacent to the bottom edge of the web and extending substantially horizontally from the front surface of the web, and a second flange portion adjacent to the bottom edge of the web and extending substantially horizontally from the rear surface of the web, and a flange termination point positioned at an outermost location of the base flange, wherein the flange termination point is positioned forward of the web termination point, and wherein the stiffener runout further comprises a perimeter clamp radius filler, wherein the perimeter clamp radius filler is configured to contact a top surface of the first flange portion around a portion of a perimeter of the top surface to create a contact area between the perimeter clamp radius filler and the portion of the perimeter of the top surface, characterized in that the contact area defines a relief cavity between the perimeter clamp radius filler and the top surface. a web configured in a substantially vertical orientation and including a front surface, a rear surface, a bottom edge, and a web termination point positioned at an outermost location of the web; and a base flange, comprising a first flange portion adjacent to the bottom edge of the web and extending substantially horizontally from the front surface of the web, and a second flange portion adjacent to the bottom edge of the web and extending substantially horizontally from the rear surface of the web, and a flange termination point positioned at an outermost location of the base flange, wherein the flange termination point is positioned forward of the web termination point, and wherein the stiffener runout further comprises a perimeter clamp radius filler, wherein the perimeter clamp radius filler is configured to contact a top surface of the first flange portion around a portion of a perimeter of the top surface to create a contact area between the perimeter clamp radius filler and the portion of the perimeter of the top surface, characterized in that the contact area defines a relief cavity between the perimeter clamp radius filler and the top surface.
A method for managing a plurality of energy storage assemblies (18A-18C, 20) intended to supply electrical energy to an object to be fed during a discharge phase, the storage assemblies being electrically connected in parallel, at least one direct current converter (22, 24) being interposed between the energy storage assemblies and the object to be fed, such that the energy from each storage assembly is converted independently from that from the other assemblies, where, during the discharge phase: - at least one parameter related to each storage assembly is measured, - depending on the parameters measured for all the assemblies and at least one output power related to the object to be fed, for the or each converter, at least one set point related to a respective electrical quantity is determined (218, 224, 228, 230) at the output, such that a distinct set point is associated with each of the assemblies, - the converter(s) is (are) controlled (220, 226, 232) such that the corresponding set point is applied, and wherein the energy storage assemblies (18A-18C, 20) are connected to at least one energy source (12, 14), through the converter(s) (22, 24), the method comprising a step of controlling the converters and the assemblies for switching the discharge phase to a charge phase, the method being characterised in that said converter(s) is (are) bidirectional and switching from the discharge phase to the charge phase is performed when an input power (Pe) supplied by the electrical power source is measured higher than a threshold power in particular the output power (Ps). - at least one parameter related to each storage assembly is measured, - depending on the parameters measured for all the assemblies and at least one output power related to the object to be fed, for the or each converter, at least one set point related to a respective electrical quantity is determined (218, 224, 228, 230) at the output, such that a distinct set point is associated with each of the assemblies, - the converter(s) is (are) controlled (220, 226, 232) such that the corresponding set point is applied, and wherein the energy storage assemblies (18A-18C, 20) are connected to at least one energy source (12, 14), through the converter(s) (22, 24), the method comprising a step of controlling the converters and the assemblies for switching the discharge phase to a charge phase, the method being characterised in that said converter(s) is (are) bidirectional and switching from the discharge phase to the charge phase is performed when an input power (Pe) supplied by the electrical power source is measured higher than a threshold power in particular the output power (Ps).
A distributed vehicle safety system comprising: a control unit; a plurality of devices, each for performing a function associated with protection of a vehicle occupant, the plurality of devices including a first group of devices and a second group of devices, the second group of devices each having an associated daisy chain switch; and a control interconnection bus for electrically connecting said control unit to each said plurality of said devices (K, L), said control interconnection bus including a first connector line and a second connector line; said first group of said devices being directly connected to both said first and said second connector lines (18A, 18B) so that said first group of devices are connected in parallel to said control unit; said second group of said devices being directly connected to said second connector line, at least one of said second group of said devices being connectable to said first connector line through a daisy chain switch associated with one of said second group of said devices arranged upstream of said at least one of said second group of said devices. a control unit; a plurality of devices, each for performing a function associated with protection of a vehicle occupant, the plurality of devices including a first group of devices and a second group of devices, the second group of devices each having an associated daisy chain switch; and a control interconnection bus for electrically connecting said control unit to each said plurality of said devices (K, L), said control interconnection bus including a first connector line and a second connector line; said first group of said devices being directly connected to both said first and said second connector lines (18A, 18B) so that said first group of devices are connected in parallel to said control unit; said second group of said devices being directly connected to said second connector line, at least one of said second group of said devices being connectable to said first connector line through a daisy chain switch associated with one of said second group of said devices arranged upstream of said at least one of said second group of said devices.
A user equipment, UE, of a wireless communication system, the UE comprising: a communication module; and a processor configured to control the communication module, wherein the processor is further configured to: receive downlink control information, DCI, for scheduling grant-based physical uplink data channel, wherein the DCI includes information indicating an interval between a corresponding physical downlink control channel and the grant-based physical uplink data channel, and when a transmission of the grant-based physical uplink data channel overlaps with a transmission of grant-free physical uplink data channel, drop one of the grant-based physical uplink data channel and the grant-free physical uplink data channel based on whether or not the interval indicated by the DCI is larger than a transmission period of the grant-free physical uplink data channel. a communication module; and a processor configured to control the communication module, wherein the processor is further configured to: receive downlink control information, DCI, for scheduling grant-based physical uplink data channel, wherein the DCI includes information indicating an interval between a corresponding physical downlink control channel and the grant-based physical uplink data channel, and when a transmission of the grant-based physical uplink data channel overlaps with a transmission of grant-free physical uplink data channel, drop one of the grant-based physical uplink data channel and the grant-free physical uplink data channel based on whether or not the interval indicated by the DCI is larger than a transmission period of the grant-free physical uplink data channel. receive downlink control information, DCI, for scheduling grant-based physical uplink data channel, wherein the DCI includes information indicating an interval between a corresponding physical downlink control channel and the grant-based physical uplink data channel, and when a transmission of the grant-based physical uplink data channel overlaps with a transmission of grant-free physical uplink data channel, drop one of the grant-based physical uplink data channel and the grant-free physical uplink data channel based on whether or not the interval indicated by the DCI is larger than a transmission period of the grant-free physical uplink data channel.
A bone screw comprising: a) an anchor component having first and second ends and comprising a nail portion adjacent the second end and a threaded portion comprising an external thread adjacent the first end, the nail portion and the threaded portion being adapted to be inserted into bone; and, b) a generally cylindrical sleeve component having first and second ends and a bore extending there-through, the bore being threaded over at least a portion thereof adjacent the second end, the sleeve component including a threaded outer surface adjacent at least the second end, the threaded outer surface adapted to be secured into the bone; - wherein the second end of the sleeve component is adapted to receive the first end of the anchor component, and wherein the threaded portion of the anchor component is adapted to engage the threaded bore of the sleeve component; - characterized in that: - the nail portion and threaded portion of the anchor component have respective longitudinal axes, wherein the longitudinal axis of the nail portion is angled with respect to the longitudinal axis of the threaded portion. a) an anchor component having first and second ends and comprising a nail portion adjacent the second end and a threaded portion comprising an external thread adjacent the first end, the nail portion and the threaded portion being adapted to be inserted into bone; and, b) a generally cylindrical sleeve component having first and second ends and a bore extending there-through, the bore being threaded over at least a portion thereof adjacent the second end, the sleeve component including a threaded outer surface adjacent at least the second end, the threaded outer surface adapted to be secured into the bone; - wherein the second end of the sleeve component is adapted to receive the first end of the anchor component, and wherein the threaded portion of the anchor component is adapted to engage the threaded bore of the sleeve component; - characterized in that: - the nail portion and threaded portion of the anchor component have respective longitudinal axes, wherein the longitudinal axis of the nail portion is angled with respect to the longitudinal axis of the threaded portion. - wherein the second end of the sleeve component is adapted to receive the first end of the anchor component, and wherein the threaded portion of the anchor component is adapted to engage the threaded bore of the sleeve component; - characterized in that: - the nail portion and threaded portion of the anchor component have respective longitudinal axes, wherein the longitudinal axis of the nail portion is angled with respect to the longitudinal axis of the threaded portion.
An isolated Pseudomonas exotoxin A ("PE"), wherein the PE has a substitution of alanine, glycine, serine or glutamine in place of the amino acid residue R505, wherein amino acid residue R505 is defined by reference to the amino acid sequence of native PE according to SEQ ID NO: 1, wherein the PE optionally further comprises: (i) a substitution of alanine, valine, glycine, leucine, isoleucine or glutamine in place of the amino acid residue R490, wherein amino acid residue R490 is defined by reference to the amino acid sequence of native PE according to SEQ ID NO:1; and/or (ii) a substitution of, independently, one or more of amino acid residues E282, E285, P290, R313, N314, P319, D324, E327, E331, Q332, D403, R412, R427, E431, R432, R458, D461, R467, R513, E522, R538, E548, R551, R576, K590, and L597, as defined by SEQ ID NO: 1, with alanine, glycine, serine, or glutamine. (i) a substitution of alanine, valine, glycine, leucine, isoleucine or glutamine in place of the amino acid residue R490, wherein amino acid residue R490 is defined by reference to the amino acid sequence of native PE according to SEQ ID NO:1; and/or (ii) a substitution of, independently, one or more of amino acid residues E282, E285, P290, R313, N314, P319, D324, E327, E331, Q332, D403, R412, R427, E431, R432, R458, D461, R467, R513, E522, R538, E548, R551, R576, K590, and L597, as defined by SEQ ID NO: 1, with alanine, glycine, serine, or glutamine.
Panel element made of wood consisting of at least two layers (3, 4) each of which is made of boards lying adjacently to one another in a parallel manner, the boards of a first layer being aligned parallel with boards of a second layer, and a board of the first layer and a board of the second layer being connected to each other by dovetail joints and the dovetail joints are produced by a sequence of dovetail-shaped recesses and projections, said recesses and projections following one another in a direction of a longitudinal extension of the boards and being shaped into the boards, the recesses and the projections extending in the direction of a width of the boards, a board of the first layer and a board of the second layer being arranged to be offset to each other in the direction of the width and to overlap each other, characterized in that the recesses of the dovetail joints have a wedge shape so as to taper from a board edge to a board center.
A round baler comprising: a drive shaft; a pick-up unit operated by said drive shaft, said pick-up unit being configured to supply a crop material; a baling chamber configured to receive said crop material from said pick-up unit; and at least one press means disposed within said baling chamber, said press means being configured to press crop material into a cylindrical bale formed by pressed layers of the crop material; a first sensor disposed within said baler, said first sensor being configured to detect a diameter change of said bale; the round baler being characterized in that it further comprises a second sensor configured to detect a speed of the drive shaft a controller configured to receive sensed signals of the speed (Vp) of the drive shaft from said second sensor and the sensed signals of the diameter change from said first sensor; a processor configured to process said speed (Vp) and said diameter change to determine a thickness (Th) of a layer of said crop material; and a display unit configured to indicate said thickness (Th) of the layer of said crop material for the bale. a drive shaft; a pick-up unit operated by said drive shaft, said pick-up unit being configured to supply a crop material; a baling chamber configured to receive said crop material from said pick-up unit; and at least one press means disposed within said baling chamber, said press means being configured to press crop material into a cylindrical bale formed by pressed layers of the crop material; a first sensor disposed within said baler, said first sensor being configured to detect a diameter change of said bale; the round baler being characterized in that it further comprises a second sensor configured to detect a speed of the drive shaft a controller configured to receive sensed signals of the speed (Vp) of the drive shaft from said second sensor and the sensed signals of the diameter change from said first sensor; a processor configured to process said speed (Vp) and said diameter change to determine a thickness (Th) of a layer of said crop material; and a display unit configured to indicate said thickness (Th) of the layer of said crop material for the bale.