mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a network node in a Bit Index Explicit Replication, BIER, domain, comprising: copying a bit index routing table, BIRT (200, 400), of the network node; changing a neighbor node in the copied BIRT to one of a plurality of backup neighbor nodes to generate a backup BIRT; deriving a backup bit index forwarding table, BIFT, from the backup BIRT; and forwarding a packet in accordance with the backup BIFT when the neighbor node has failed. copying a bit index routing table, BIRT (200, 400), of the network node; changing a neighbor node in the copied BIRT to one of a plurality of backup neighbor nodes to generate a backup BIRT; deriving a backup bit index forwarding table, BIFT, from the backup BIRT; and forwarding a packet in accordance with the backup BIFT when the neighbor node has failed.
Accelerometer configured to be attached on a base surface comprising: a decoupling structure for fixing the accelerometer on the base surface; and a MEMS sensor chip for measuring an acceleration, wherein the MEMS sensor chip is supported by the decoupling structure and comprises a first sensor wafer layer of a semiconductor material; wherein the decoupling structure forms a bottom portion for fixing the decoupling structure on the base surface and a top portion fixed to the first sensor wafer layer so that the MEMS sensor chip is arranged above the decoupling structure; wherein a width of the top portion in a first planar direction is smaller than a width of the bottom portion in the first planar direction; wherein the top portion and the bottom portion are manufactured from the same wafer layer; wherein the centre point of the top portion in the first planar direction is arranged in a central region (cr) of the bottom portion in the first planar direction; characterized in that the decoupling structure is made out of the same semiconductor material as the first sensor wafer layer, and the MEMS sensor chip comprises a hermetically closed cavity which includes a seismic mass of the MEMS sensor chip. a decoupling structure for fixing the accelerometer on the base surface; and a MEMS sensor chip for measuring an acceleration, wherein the MEMS sensor chip is supported by the decoupling structure and comprises a first sensor wafer layer of a semiconductor material; wherein the decoupling structure forms a bottom portion for fixing the decoupling structure on the base surface and a top portion fixed to the first sensor wafer layer so that the MEMS sensor chip is arranged above the decoupling structure; wherein a width of the top portion in a first planar direction is smaller than a width of the bottom portion in the first planar direction; wherein the top portion and the bottom portion are manufactured from the same wafer layer; wherein the centre point of the top portion in the first planar direction is arranged in a central region (cr) of the bottom portion in the first planar direction; characterized in that the decoupling structure is made out of the same semiconductor material as the first sensor wafer layer, and the MEMS sensor chip comprises a hermetically closed cavity which includes a seismic mass of the MEMS sensor chip.
A method of scheduling data transmissions between a mobile terminal and a base station in a wireless communications network arranged for the transmission of multiple component carrier signals in a Third Generation Long Term Evolution system, each component carrier providing for the transmission of signals in a predetermined bandwidth around the carrier, characterized in that the method comprises the steps of: • receiving in the mobile terminal information from said base station indicating available component carriers; • detecting in the mobile terminal at least one dynamic parameter indicative of the mobile terminal's current ability to handle component carriers having non-contiguous bandwidths; • determining in the mobile terminal in dependence of said at least one dynamic parameter which of said available component carriers to utilize for said data transmissions; and • transmitting (702, 703) from said mobile terminal to said base station information indicating the component carriers determined to utilize for said data transmissions. • receiving in the mobile terminal information from said base station indicating available component carriers; • detecting in the mobile terminal at least one dynamic parameter indicative of the mobile terminal's current ability to handle component carriers having non-contiguous bandwidths; • determining in the mobile terminal in dependence of said at least one dynamic parameter which of said available component carriers to utilize for said data transmissions; and • transmitting (702, 703) from said mobile terminal to said base station information indicating the component carriers determined to utilize for said data transmissions.
An engine device comprising: an engine; and a case that accommodates the engine, wherein the engine includes a crankcase constituting a lower part thereof and is attached to the case via support parts (81, 82), at least one of the support parts (81, 82) includes a mounting part provided in the case and an attachment bracket fastened to a bottom of the crankcase by a fastening bolt and attached to the mounting part, the fastening bolt penetrates through a through hole provided in the attachment bracket and screwed into a screw hole formed obliquely inward at a corner of the bottom of the crankcase, the crankcase includes a first half and a second half joined to each other by bolts on an interface formed obliquely with respect to a crank axis, and the second half is provided with the screw hole, and the screw hole is orthogonal to the interface. an engine; and a case that accommodates the engine, wherein the engine includes a crankcase constituting a lower part thereof and is attached to the case via support parts (81, 82), at least one of the support parts (81, 82) includes a mounting part provided in the case and an attachment bracket fastened to a bottom of the crankcase by a fastening bolt and attached to the mounting part, the fastening bolt penetrates through a through hole provided in the attachment bracket and screwed into a screw hole formed obliquely inward at a corner of the bottom of the crankcase, the crankcase includes a first half and a second half joined to each other by bolts on an interface formed obliquely with respect to a crank axis, and the second half is provided with the screw hole, and the screw hole is orthogonal to the interface.
A heat exchanger plate, comprising a heat exchanger area, at least two portholes each having a diameter, at least two porthole areas, wherein each of the portholes is surrounded by a respective one of the porthole areas, wherein the porthole areas are separated from each other, wherein each porthole area comprises a corrugation of beams, and wherein each of the beams has an end turned towards the porthole and extends along a respective extension direction towards the porthole, characterized in that the extension direction of each of the beams forms an acute angle (α) to a radial line through the end of the beam, that the acute angle (α) is substantially equal for each of the beams, and that the beams are equidistantly provided around the porthole.
A method for force measurement of forces acting on at least one seal with a device in a washing apparatus for washing and dewatering of cellulosic pulp, comprising a rotary drum with a plurality of outer compartments on the drum for the pulp to be washed, which compartments are defined by axial compartment walls distributed along the perimeter of the drum, a stationary casing surrounding the drum, whereby an annular space is defined between the casing and the drum, wherein the annular space is divided into zones (F, T1, T2, U) by longitudinal seals extending in the axial direction of the drum for formation, washing and output of the pulp, and wherein the device for force measurement comprises a load transmission shaft, which has an extension mainly through the device for force measurement in the radial direction of the drum, having a first end in connection with which the longitudinal seal is intended to be provided, a spring package for transmission of driving force to the seal, characterized by the steps measuring the biasing force of the spring package for force measurement during shutdown of the washing apparatus with a measuring means, measuring a force acting on the load transmission shaft during operation with the measuring device, and extraction of a force acting against the longitudinal seal in a direction away from the drum, from the measured biasing force of the spring package and the measured force acting on the load transmission shaft during operation.
A low-dose pharmaceutical composition in the form of a capsule, comprising a blended mixture comprising (a) a therapeutically effective amount of 4,4'-[fluoro-(1-H-1,2,4-triazol-1-yl)methylene]bisbenzonitrile which amount is from about 0.01 to about 5 mg per capsule; (b) a mixture of 3 fillers, wherein said fillers are microcrystalline cellulose, lactose monohydrate and maize starch, (c) a disintegrant, wherein said disintegrant is Sodium Starch Glycollate, (d) a lubricant, wherein said lubricant is magnesium stearate, (e) a glidant, wherein said glidant is colloidal silicon dioxide, said mixture of fillers is employed in an amount ranging from 80 % to 96 %, by weight of the capsule content; said disintegrant is employed in an amount ranging from 3 % to 6 % by weight of the capsule content; said lubricant is employed in an amount ranging from 0.25 % to 5 % by weight of the capsule content and said glidant is employed in an amount ranging from 0.25 % to 1 % by weight of the capsule content. (a) a therapeutically effective amount of 4,4'-[fluoro-(1-H-1,2,4-triazol-1-yl)methylene]bisbenzonitrile which amount is from about 0.01 to about 5 mg per capsule; (b) a mixture of 3 fillers, wherein said fillers are microcrystalline cellulose, lactose monohydrate and maize starch, (c) a disintegrant, wherein said disintegrant is Sodium Starch Glycollate, (d) a lubricant, wherein said lubricant is magnesium stearate, (e) a glidant, wherein said glidant is colloidal silicon dioxide,
An electronic device, comprising a housing, a display screen, a deformation drive part, and a camera module, wherein: the display screen is disposed on the housing, the display screen and the housing form an inner cavity, the camera module and the deformation drive part are disposed in the inner cavity, the display screen comprises a first area and a second area connected to each other, the first area is a first plane area, the second area is located on an edge of the display screen, the deformation drive part is connected to the second area, characterized in that the deformation drive part drives the second area to switch between a flattened state and a curved state through deformation; in a case that the second area is in the flattened state, the second area is a flat second plane area, and the second plane area is located in a same plane as the first plane area; in a case that the second area is in the curved state, the second area is curved; a light-transmitting area is disposed in the second area; and in the case that the second area is in the flattened state, ambient light passing through the light-transmitting area is projected onto the camera module. the display screen is disposed on the housing, the display screen and the housing form an inner cavity, the camera module and the deformation drive part are disposed in the inner cavity, the display screen comprises a first area and a second area connected to each other, the first area is a first plane area, the second area is located on an edge of the display screen, the deformation drive part is connected to the second area, characterized in that the deformation drive part drives the second area to switch between a flattened state and a curved state through deformation; in a case that the second area is in the flattened state, the second area is a flat second plane area, and the second plane area is located in a same plane as the first plane area; in a case that the second area is in the curved state, the second area is curved; a light-transmitting area is disposed in the second area; and in the case that the second area is in the flattened state, ambient light passing through the light-transmitting area is projected onto the camera module.
A method for encoding a picture block, said picture block comprising a plurality of pixels, each pixel having a luminance component, characterized in that the method comprises: - obtaining an average value ( L l) of the luminance component, said average value of the luminance component being the average of luminance component of the plurality of pixels of the picture block; - applying a transfer function to the average value ( L l) of the luminance component, said transfer function being a monotonous function reducing the dynamic range from a higher dynamic range picture to a lower dynamic range picture; - obtaining a second representation ( f ( L l) D) of the average value by quantizing the transferred average value ( f ( L l)) of the luminance component based on a sampling factor (m), - obtaining a first representation ( L lD) of the average value by applying an inverse transfer function to said second representation ( f ( L l) D) of the average value, said inverse transfer function being the inverse of said transfer function; - obtaining a luminance residual block ( L r) by subtracting, for a current pixel in the picture block, the first representation ( L lD) of the average value of the luminance component from said luminance component of the current pixel; - obtaining a second representation ( L e) of the luminance block by adding the luminance residual block ( L r) and the second representation ( f ( L i) D) of the average value; - encoding, in a bitstream, the second representation of the luminance block ( L e). - obtaining an average value ( L l) of the luminance component, said average value of the luminance component being the average of luminance component of the plurality of pixels of the picture block; - applying a transfer function to the average value ( L l) of the luminance component, said transfer function being a monotonous function reducing the dynamic range from a higher dynamic range picture to a lower dynamic range picture; - obtaining a second representation ( f ( L l) D) of the average value by quantizing the transferred average value ( f ( L l)) of the luminance component based on a sampling factor (m), - obtaining a first representation ( L lD) of the average value by applying an inverse transfer function to said second representation ( f ( L l) D) of the average value, said inverse transfer function being the inverse of said transfer function; - obtaining a luminance residual block ( L r) by subtracting, for a current pixel in the picture block, the first representation ( L lD) of the average value of the luminance component from said luminance component of the current pixel; - obtaining a second representation ( L e) of the luminance block by adding the luminance residual block ( L r) and the second representation ( f ( L i) D) of the average value; - encoding, in a bitstream, the second representation of the luminance block ( L e).
A connection device for a discharge system for draining circulation areas, wherein the connection device has a top nozzle, which is connectable to a top piece for draining water, and a discharge body, which is connectable to an exhaust water system, wherein a shuttering nozzle is arranged between the top nozzle and the discharge body, wherein the shuttering nozzle extends into the discharge body and has a support flange arranged between the axial ends of the shuttering nozzle, characterized in that the shuttering nozzle has drainage openings which are arranged above the support flange to be distributed over the circumference. wherein the connection device has a top nozzle, which is connectable to a top piece for draining water, and a discharge body, which is connectable to an exhaust water system, wherein a shuttering nozzle is arranged between the top nozzle and the discharge body, wherein the shuttering nozzle extends into the discharge body and has a support flange arranged between the axial ends of the shuttering nozzle, characterized in that the shuttering nozzle has drainage openings which are arranged above the support flange to be distributed over the circumference.
Method for electromagnetic stirring of liquid metal in a continuous charge electric arc furnace, in which at least one first electromagnetic field along a first axis of electromagnetic stirring and at least a second electromagnetic field along a second axis of electromagnetic stirring are generated by means of electromagnetic stirrers (23, 24; 123, 124), characterized in that in a first step of the cycle of the furnace said first electromagnetic field and said second electromagnetic field generate mixing forces (F1, F2) on the liquid metal whose respective axes of generation (F4, F3) have discordant opposite senses with respect to each other and in a second step of the cycle of the furnace said electromagnetic fields generate mixing forces (F1, F2) on the liquid metal whose respective axes of generation (F4, F5) have concordant same senses with respect to each other, and in that said first step is the charging step and said second step is the refining step.
Method for carrying out a zero-point calibration of a measuring arrangement according to the differential pressure principle for flow measurement of fluids, which has a measuring transducer comprising a measurement cell which is connected by means of signal technology to at least one evaluation unit and at least one communication unit, wherein a1) the measuring transducer delivers a signal proportional to the differential pressure, a2) a temperature of the measurement cell and/or a process pressure are measured and a corresponding signal is provided, a3) the signals are converted into digital signals, a4) the digital signals are provided to the communication unit, b) at least one characteristic quantity relevant to the zero-point calibration is determined from the digital signals, wherein the at least one characteristic quantity is the temperature of the measurement cell or the process pressure, c) the at least one relevant characteristic quantity is stored at a first time as a reference characteristic quantity; d) the at least one relevant characteristic quantity is determined at a second time (current characteristic quantity), which lies after the first time; e) a comparison between the reference characteristic quantity and the current characteristic quantity is carried out; f) a zero-point calibration of the measuring arrangement is carried out when the result of the comparison lies outside a predetermined tolerance. a1) the measuring transducer delivers a signal proportional to the differential pressure, a2) a temperature of the measurement cell and/or a process pressure are measured and a corresponding signal is provided, a3) the signals are converted into digital signals, a4) the digital signals are provided to the communication unit, b) at least one characteristic quantity relevant to the zero-point calibration is determined from the digital signals, wherein the at least one characteristic quantity is the temperature of the measurement cell or the process pressure, c) the at least one relevant characteristic quantity is stored at a first time as a reference characteristic quantity; d) the at least one relevant characteristic quantity is determined at a second time (current characteristic quantity), which lies after the first time; e) a comparison between the reference characteristic quantity and the current characteristic quantity is carried out; f) a zero-point calibration of the measuring arrangement is carried out when the result of the comparison lies outside a predetermined tolerance.
Self-supporting structure for building facades, comprising at least two pillars, transverse beams for connection between pillars, a plurality of blades attached to the beams, characterized in that the blades have a profile with decreasing height in the direction away from the beam, the blades having a depth and height ratio comprised in the range between 1.1 and 4.4, with the profile of the blade concave upward so that it may contain a substrate for the growth of plants, so that the slats are also plant boxes.
A method of twisting a pair of wires, comprising the steps of: a) arranging a first wire and a second wire along a longitudinal axis; b) disposing ends of the first and second wires (12, 14) being terminated by electrical terminals within terminal cavities of connector bodies; the method being characterized in that it further comprises the steps of: c) securing the connector bodies; d) gripping central portions of the first and second wires (12, 14); e) applying a lateral offsetting force to the first and second wires (12, 14) by deflecting the central portions of the first and second wires (12, 14) orthogonally from the longitudinal axis; and f) rotating the central portions of the first and second wires (12, 14), thereby twisting the first and second wires about one another, wherein step e) is performed prior to step f). a) arranging a first wire and a second wire along a longitudinal axis; b) disposing ends of the first and second wires (12, 14) being terminated by electrical terminals within terminal cavities of connector bodies; c) securing the connector bodies; d) gripping central portions of the first and second wires (12, 14); e) applying a lateral offsetting force to the first and second wires (12, 14) by deflecting the central portions of the first and second wires (12, 14) orthogonally from the longitudinal axis; and f) rotating the central portions of the first and second wires (12, 14), thereby twisting the first and second wires about one another,
Torsion spring arrangement for a wheel suspension of a motor vehicle, comprising two torsion bars (12, 14), which are arranged coaxially one inside the other, and comprising a spring element, which is arranged at a radial distance from the two coaxial torsion bars (12, 14), aligned in the axial direction (a) of the torsion bars (12, 14), which can be mounted on the motor vehicle body by means of a bearing point, wherein the radially (r) outer hollow cylindrical torsion bar can be mounted on the motor vehicle body and is connected rotationally fixedly to an output lever, which can be attached to a wheel guidance element, and the radially (r) inner torsion bar is connected rotationally fixedly to the outer torsion bar and, by means of a coupling, rotationally fixedly to the spring element, characterised in that the spring element is mounted on the coupling by means of a spring element bearing, which is designed such that the spring element is acting exclusively with a tangentially (t) directed translational deflection and that the bearing point mounted on the motor vehicle body for the spring element is designed as a fixed bearing.