mhurhangee/ep-ind-claims huggingface dataset:
A transmitting node for a wireless communication network, the transmitting node being adapted for transmission utilizing independently controllable antenna elements of an antenna arrangement, the transmitting node being adapted for switching between different beams or subsets of the antenna elements for transmission based on transmitted power in relation to at least one EMF exposure limit, wherein the transmitting node is configured to transmit with a specific beam or subset of antenna elements for a limited amount of switching time and the transmission is carried on by a different beam or subset of antenna elements when the switching time is over, and wherein the switching time is equal to Tav/N, where Tav is the averaging time relevant for EMF exposure and N is a number of beams transmitted by the transmitting node with a suitable Quality of Service, QoS.
A method for determining a state of a phase-change memory cell, the method comprising: biasing the cell with a time- varying read voltage (V read); making a time measurement (T M) dependent on a predetermined condition, which condition is dependent on cell current during application of the read voltage, being satisfied; and determining the state of the cell in dependence on said measurement, wherein the method further includes biasing the cell with a predetermined read voltage (V read) which varies with time over a range of voltage levels, wherein said measurement (T M) is indicative of the time taken for said predetermined condition to be satisfied, wherein said predetermined condition is that the cell current changes from a first predetermined non-zero current level (I DL) to a second predetermined non-zero current level (I DH). biasing the cell with a time- varying read voltage (V read); making a time measurement (T M) dependent on a predetermined condition, which condition is dependent on cell current during application of the read voltage, being satisfied; and determining the state of the cell in dependence on said measurement,
A method for producing D-fructose from D-glucose, characterized in that, in a one-pot synthesis, a) D-glucose is oxidized enzymatically to D-glucosone using a pyranose-2-oxidase and b) D-glucosone is reduced enzymatically to D-fructose using a reductase, wherein, in particular in step b), a redox cofactor will be used. a) D-glucose is oxidized enzymatically to D-glucosone using a pyranose-2-oxidase and b) D-glucosone is reduced enzymatically to D-fructose using a reductase,
A system comprising: an input to receive image data (109, 301) including first color data representing a first color, second color data representing a second color and third color data representing a third color and to output including an interpolated first color data; an image processing system responsive to the image data and including a demosaicing module, the demosaicing module includes an interpolation filter configured to receive the input image data (109, 301) and to output interpolated first color data; and an output responsive to the image processing system and adapted to provide output data; characterized in that the interpolation filter includes: logic to interpolate the second color data to generate interpolated second color data; logic to subtract the interpolated second color data from the first color data to generate fourth color data; adaptive bi-cubic spline interpolation logic to receive the fourth color data and to generate an interpolated fourth color data; and logic to add the second color data to the interpolated fourth color data to produce interpolated first color data at locations associated with the second color data. an input to receive image data (109, 301) including first color data representing a first color, second color data representing a second color and third color data representing a third color and to output including an interpolated first color data; an image processing system responsive to the image data and including a demosaicing module, the demosaicing module includes an interpolation filter configured to receive the input image data (109, 301) and to output interpolated first color data; and an output responsive to the image processing system and adapted to provide output data; characterized in that the interpolation filter includes: logic to interpolate the second color data to generate interpolated second color data; logic to subtract the interpolated second color data from the first color data to generate fourth color data; adaptive bi-cubic spline interpolation logic to receive the fourth color data and to generate an interpolated fourth color data; and logic to add the second color data to the interpolated fourth color data to produce interpolated first color data at locations associated with the second color data. logic to interpolate the second color data to generate interpolated second color data; logic to subtract the interpolated second color data from the first color data to generate fourth color data; adaptive bi-cubic spline interpolation logic to receive the fourth color data and to generate an interpolated fourth color data; and logic to add the second color data to the interpolated fourth color data to produce interpolated first color data at locations associated with the second color data.
A civil aircraft, in particular electrified vertical take-off and landing aircraft, comprising at least one actuator for generating an actuating movement for a primary flight control surface, wherein the actuator comprises an electric motor and a reduction gear coupled thereto, and wherein the reduction gear is configured as a harmonic drive gear comprising a wave generator, wherein the actuator is configured as a flap actuator for adjusting a flap structure pivotable about a pivot axis at a trailing edge of a wing structure, wherein the actuator comprises an outer ring with an inner toothing and which is part of a housing of the actuator that is fixed in the flap structure, and wherein an output shaft of the actuator is disposed coaxially with the pivot axis of the flap structure, characterized in that the actuator further comprises an input shaft rotated by the electric motor and arranged coaxially with the output shaft; and in that the wave generator consists of: an elliptical steel disk connected to the input shaft in a rotationally fixed manner; a ball bearing shrunk onto the outside of the steel disk; and a steel bush with an outer toothing which engages with the inner toothing of the outer ring, said steel bush being deformable by the steel disk via an outer ring of the ball bearing and being fixed to the output shaft. wherein the actuator is configured as a flap actuator for adjusting a flap structure pivotable about a pivot axis at a trailing edge of a wing structure, wherein the actuator comprises an outer ring with an inner toothing and which is part of a housing of the actuator that is fixed in the flap structure, and wherein an output shaft of the actuator is disposed coaxially with the pivot axis of the flap structure, characterized in that the actuator further comprises an input shaft rotated by the electric motor and arranged coaxially with the output shaft; and in that the wave generator consists of: an elliptical steel disk connected to the input shaft in a rotationally fixed manner; a ball bearing shrunk onto the outside of the steel disk; and a steel bush with an outer toothing which engages with the inner toothing of the outer ring, said steel bush being deformable by the steel disk via an outer ring of the ball bearing and being fixed to the output shaft. an elliptical steel disk connected to the input shaft in a rotationally fixed manner; a ball bearing shrunk onto the outside of the steel disk; and a steel bush with an outer toothing which engages with the inner toothing of the outer ring, said steel bush being deformable by the steel disk via an outer ring of the ball bearing and being fixed to the output shaft.
Hydraulically damping bearing for mounting a motor vehicle unit on a motor vehicle body, having a support and a supporting bearing which are connected to one another by a supporting spring made of an elastomeric material, the supporting spring delimiting a working chamber which is separated from an equalising chamber by a separating device, the working chamber and the equalising chamber being filled with a fluid and being connected to one another via a damping channel introduced into the separating device, the separating device having two nozzle discs (28, 30), between which a first diaphragm and a second diaphragm are arranged, and one of the diaphragms (36, 38) having at least one through-hole, characterised in that the respective other diaphragm (36, 38) does not have a through-hole.
A sampling and assay kit comprising a separate stopper, receptacle and sample holder (1; 21): the receptacle being for holding a quantity of a liquid; the sample holder (1; 21) comprising: a sampler; and a body portion, which holds the sampler and is insertable within the receptacle, the body portion including projection means in the form of shoulders (10A, 10B); wherein the receptacle has an internal projection such that when the body portion is inserted in the receptacle, the projection means (10A, 10B) of the body portion rests on said internal projection, so as to cause positioning of the sampler within the receptacle at a predetermined position above the end of the receptacle; the stopper including a chamber for holding a reagent, a lid and a plunger device effective to open the lid, said body portion including an indented portion being defined between the shoulders (10A, 10B), which enables opening of the lid so as to enable ejection of reagent held within the chamber into the receptacle when the stopper is inserted in the receptacle in a space above the body portion. the receptacle being for holding a quantity of a liquid; the sample holder (1; 21) comprising: a sampler; and a body portion, which holds the sampler and is insertable within the receptacle, the body portion including projection means in the form of shoulders (10A, 10B); a sampler; and a body portion, which holds the sampler and is insertable within the receptacle, the body portion including projection means in the form of shoulders (10A, 10B); wherein the receptacle has an internal projection such that when the body portion is inserted in the receptacle, the projection means (10A, 10B) of the body portion rests on said internal projection, so as to cause positioning of the sampler within the receptacle at a predetermined position above the end of the receptacle; the stopper including a chamber for holding a reagent, a lid and a plunger device effective to open the lid, said body portion including an indented portion being defined between the shoulders (10A, 10B), which enables opening of the lid so as to enable ejection of reagent held within the chamber into the receptacle when the stopper is inserted in the receptacle in a space above the body portion.
A method operable by a first user equipment, UE, for wireless communication, comprising: discovering a peer UE; determining a first metric for peer-to-peer, P2P, communication with the peer UE; determining a second metric for communicating with a base station in a wide area cellular network; applying different offsets to the first and second metrics to generate an adjusted first and adjusted second metric, wherein the different offsets create an association bias to either the peer UE or the wide area cellular network; and deciding whether to associate with the peer UE for P2P communication or with the base station for wide area cellular network communication based on the adjusted first and second metrics. discovering a peer UE; determining a first metric for peer-to-peer, P2P, communication with the peer UE; determining a second metric for communicating with a base station in a wide area cellular network; applying different offsets to the first and second metrics to generate an adjusted first and adjusted second metric, wherein the different offsets create an association bias to either the peer UE or the wide area cellular network; and deciding whether to associate with the peer UE for P2P communication or with the base station for wide area cellular network communication based on the adjusted first and second metrics.
Sliding gate forming a water barrier, in particular for flood protection, comprising a lower frame element and an upper frame element which are arranged horizontally and lie one above the other at a distance from each other, wherein the lower frame element is provided with a pivot arm which, at its first end, is fastened pivotably on the lower frame element and, between its first end and its second end, is provided with a running wheel, and, between the upper frame element and the pivot arm, an adjustment means (VM1, VM2) is arranged in order to transfer the pivot arm from a sliding mode to a blocking mode, wherein in the blocking mode the bottom edge of the lower frame element bears on a rail on which, in the sliding mode, the sliding gate is movable by means of the running wheel.
A cross country ski manufactured as a multi-layer body and comprising a shell casing whose sectional view is substantially in a shape of an inverted "U" letter, wherein the ski further comprises a core filled in the casing, a strength member arranged at least on a lower side of a binding or on a lower side of an area for fixing the binding arranged on an upper side of the ski, a running surface on the lower side of the ski and a force distribution element arranged between the running surface and the strength member, wherein the running surface and the force distribution element include in an area of a kick and grip zone of the ski a recess running along a longitudinal direction of the ski, in the recess a replaceable supporting member is mounted in an extractable manner, the supporting member has a shape of a dimensionally stable band whose at least one side (14, 15) is either smooth or equipped with a means preventing backwards sliding, wherein a bottom of the recess is equipped with at least one permanent magnet and the supporting member is equipped with one ferromagnetic segment, arranged against the permanent magnet and the ski also comprises an extraction means to separate the supporting member from the bottom of the recess and disengage the lower side of the supporting member above the level of the running surface, characterized in that the extraction means consists of a case, which is arranged inside the ski in the area of the zone and at the same time in the area designed for fixing the binding, and is opened in a manner allowing the upper side of the casing to be connected with the recess, the extraction means also consists of a pressure member, which is mounted in the case in a movable manner with the possibility of movement between an upper extreme position, in which the pressure member does not reach the recess, and a lower extreme position in which the pressure member reaches the recess by at least the length l ≥ t, where t is a total thickness of the supporting member, wherein the case further consists of a watertight element with a through hole in which the movable pressure member is mounted, the movable pressure member is formed by a pin and the case as well as the pin have a circular cross section.
A method of manufacturing a three-dimensional part made of a non water dispersible polymer, the method comprising: additive manufacturing the three-dimensional part; additive manufacturing a support structure that supports the three-dimensional part by printing the support structure comprising a water dispersible sulfo polymer that is a reaction product of a sulfur monomer, wherein the reaction product comprises a sulfo-polyamide, a sulfo-polyesteramide, or a sulfo-polyurethane wherein the water dispersible polymer comprises either a polymer having a glass transition temperature within ± 20°C of the glass transition temperature of the non water dispersible polymer or a polymer having a heat deflection temperature within ±20° C of the heat deflection temperature of the non water dispersible polymer; and separating the non water dispersible polymer of the three-dimensional part from the water dispersible polymer support structure by subjecting the water dispersible polymer to water. additive manufacturing the three-dimensional part; additive manufacturing a support structure that supports the three-dimensional part by printing the support structure comprising a water dispersible sulfo polymer that is a reaction product of a sulfur monomer, wherein the reaction product comprises a sulfo-polyamide, a sulfo-polyesteramide, or a sulfo-polyurethane wherein the water dispersible polymer comprises either a polymer having a glass transition temperature within ± 20°C of the glass transition temperature of the non water dispersible polymer or a polymer having a heat deflection temperature within ±20° C of the heat deflection temperature of the non water dispersible polymer; and separating the non water dispersible polymer of the three-dimensional part from the water dispersible polymer support structure by subjecting the water dispersible polymer to water.
A method for controlling operation of an autonomous working machine through a gate opening formed through a property barrier, the gate opening selectively blocked by a gate, the method comprising: approaching a first side of the gate with the working machine, the working machine comprising: a machine controller adapted to autonomously control navigation of the working machine as the working machine traverses a property containing the property barrier; and one or more cameras carried by the working machine and in communication with the machine controller; wirelessly transmitting a gate open signal from the machine controller to a gate controller associated with the gate; commanding, via the gate controller, an actuator connected to the gate to move the gate from a closed position, wherein passage of the working machine through the gate opening of the property barrier is blocked, to an open position, wherein passage of the working machine through the gate opening of the property barrier is permitted; monitoring an area adjacent to the gate with the one or more cameras; detecting an unknown object within the area adjacent to the gate using the one or more cameras and machine controller; delaying movement of the gate to the open position based upon a detected presence of the unknown object; and autonomously propelling the working machine through the gate opening under control of the machine controller. approaching a first side of the gate with the working machine, the working machine comprising: a machine controller adapted to autonomously control navigation of the working machine as the working machine traverses a property containing the property barrier; and one or more cameras carried by the working machine and in communication with the machine controller; a machine controller adapted to autonomously control navigation of the working machine as the working machine traverses a property containing the property barrier; and one or more cameras carried by the working machine and in communication with the machine controller; wirelessly transmitting a gate open signal from the machine controller to a gate controller associated with the gate; commanding, via the gate controller, an actuator connected to the gate to move the gate from a closed position, wherein passage of the working machine through the gate opening of the property barrier is blocked, to an open position, wherein passage of the working machine through the gate opening of the property barrier is permitted; monitoring an area adjacent to the gate with the one or more cameras; detecting an unknown object within the area adjacent to the gate using the one or more cameras and machine controller; delaying movement of the gate to the open position based upon a detected presence of the unknown object; and autonomously propelling the working machine through the gate opening under control of the machine controller.
Method in-vitro or ex-vivo of monitoring the status of the transplanted organ rejection or of the immunosuppressive therapy efficacy in a subject, comprising: a) providing cell-free DNA from a biological sample obtained from a subject who is the recipient of an organ transplant from a donor; b) sequencing a panel of 94 single nucleotide polymorphisms (SNPs) from the cell-free DNA, and c) calculating the quantity of the donor-derived cell-free DNA in said biological sample; characterized in that the 94 single nucleotide polymorphisms sequenced at point b) are that listed in Table 3, in that step c) calculate the differences in SNP positions by identifying and comparing variations in specific nucleotide positions between the donor-derived cell-free DNA and the recipient-derived cell-free DNA, using the recipient's genomic DNA previously characterized, as reference, and in that step c) is based on the calculation of cfDNA donor fraction with the formula: DFi % = AF SNPi − AF SNPi rec / AF SNPi don − AF SNPi rec × 100 for each SNPi and total DF% is calculated as: DF% = mean DFi% ± SD DF wherein: AF(SNP i) is the allele frequency of the SNP considered, calculated for the total cfDNA mixture (donor+recipient), and AF(SNP idon) and AF(SNP irec) is the allele frequency of the SNP considered in the donor and recipient cfDNA respectively, according to their genotype. a) providing cell-free DNA from a biological sample obtained from a subject who is the recipient of an organ transplant from a donor; b) sequencing a panel of 94 single nucleotide polymorphisms (SNPs) from the cell-free DNA, and c) calculating the quantity of the donor-derived cell-free DNA in said biological sample; AF(SNP i) is the allele frequency of the SNP considered, calculated for the total cfDNA mixture (donor+recipient), and AF(SNP idon) and AF(SNP irec) is the allele frequency of the SNP considered in the donor and recipient cfDNA respectively, according to their genotype.