mhurhangee/ep-ind-claims huggingface dataset:
A method of cooling an apparatus, having a surface (64, 84, 102) with a coolant and a porous member, the method comprising: providing a porous member including: selecting a substantially non-porous laminate preform; laminating said laminate preform to form a laminated structure with a pore forming member disposed therein; removing said pore forming member to form a selected pore; forming a coolant flow area (72, 86, 106) near at least a portion of said surface (64, 84, 102), including positioning the porous member a distance from said portion of said surface of said apparatus; flowing the coolant (88, 108) through said coolant flow area; and transporting a portion of said coolant through said porous member. providing a porous member including: selecting a substantially non-porous laminate preform; laminating said laminate preform to form a laminated structure with a pore forming member disposed therein; removing said pore forming member to form a selected pore; selecting a substantially non-porous laminate preform; laminating said laminate preform to form a laminated structure with a pore forming member disposed therein; removing said pore forming member to form a selected pore; forming a coolant flow area (72, 86, 106) near at least a portion of said surface (64, 84, 102), including positioning the porous member a distance from said portion of said surface of said apparatus; flowing the coolant (88, 108) through said coolant flow area; and transporting a portion of said coolant through said porous member.
A computer-implemented method of processing a set of images to determine a spatial arrangement for the set of images for display by a display device, the method comprising: for each image in the set of images: obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining, for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and transposing the images in the set from the respective initial positions of the images, in the respective offset directions, whereby the transposing of the images from the respective initial positions of the images determines the spatial arrangement for the set of images. for each image in the set of images: obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining, for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining, for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and transposing the images in the set from the respective initial positions of the images, in the respective offset directions, whereby the transposing of the images from the respective initial positions of the images determines the spatial arrangement for the set of images.
Drill bit for creating a tubular hole in a bone, comprising a longitudinal body extending along an axis and having a proximal end and a distal end, a main cutting edge formed at the distal end of the body, a main cutting face extending from the main cutting edge and defining a rake angle (α), and a spiral flute formed around the body and extending from the main cutting face along the axis of the body, wherein the main cutting edge is the only single main cutting edge of the drill bit, the spiral flute is the only single spiral flute of the drill bit, and the rake angle (α) is at least 25°.
A method for processing data in a communication network, - wherein a first node (N1, H1; RB1, BHC1) is served by a second node (N0, H0; GW, BHS) and communicates with a third node (N3; MT1); - wherein the second node (N0, H0; GW, BHS), the first node (N1, H1; RB1, BHC1) and a fourth node (N2, H2; RB2, BHC2) are connected via a transport network (H0, H1, H2; BHS, BHC1, BHC2) that is capable of a point-to-multipoint connection; characterized by the second node (N0, H0; GW, BHS) sending data destined for the first node (N1, H1; RB1, BHC1) to the first node (N1, H1; RB1, BHC1) and to the fourth node (N2, H2; RB2, BHC2) in addition to data destined for the fourth node (N2, H2; RB2, BHC2) and already processed by the fourth node (N2, H2; RB2, BHC2); and the first node (N1, H1; RB1, BHC1) informing the fourth node (N2, H2; RB2, BHC2) to process the data destined for the first node (N1, H1; RB1, BHC1), when the third node (N3; MT1) is handed over from the first node (N1, H1; RB1, BHC1) to the fourth node (N2, H2; RB2, BHC2). - wherein a first node (N1, H1; RB1, BHC1) is served by a second node (N0, H0; GW, BHS) and communicates with a third node (N3; MT1); - wherein the second node (N0, H0; GW, BHS), the first node (N1, H1; RB1, BHC1) and a fourth node (N2, H2; RB2, BHC2) are connected via a transport network (H0, H1, H2; BHS, BHC1, BHC2) that is capable of a point-to-multipoint connection;
Apparatus for inserting a spigot fully into a flexible tube, the apparatus including:- • means for supporting and advancing a spigot; and • means for gripping a flexible tube for insertion of the spigot; the gripping means including • a pair of jaws for gripping and releasing the tube, with sufficient strength to hold to the tube but not crush the same, • at least part (21;31) of one or both jaws being moveably mounted against a resistance (24; 34,35) such that under the force of the advancing spigot at least part of one or both jaws can release sufficiently to allow the spigot to pass into the tube, while retaining the tube in the apparatus; • a microprocessor to control movement of the advancing means and the gripping means during insertion of the spigot into the flexible tube; • the microprocessor being programmed to include the steps of: • closing the jaws to initially grip the tube, • fully advancing a spigot into a tube and • opening the jaws when the tube is fully inserted, characterised in that the microprocessor is further programmed to include, between the steps of initially closing the jaws and of fully advancing the spigot into the tube, the additional steps of: • initial advancing the spigot partially into the tube, • opening the jaws to allow the tube to relax, • re-closing the jaws for further advance of the spigot further into the tube. • means for supporting and advancing a spigot; and • means for gripping a flexible tube for insertion of the spigot; the gripping means including • a pair of jaws for gripping and releasing the tube, with sufficient strength to hold to the tube but not crush the same, • at least part (21;31) of one or both jaws being moveably mounted against a resistance (24; 34,35) such that under the force of the advancing spigot at least part of one or both jaws can release sufficiently to allow the spigot to pass into the tube, while retaining the tube in the apparatus; • a pair of jaws for gripping and releasing the tube, with sufficient strength to hold to the tube but not crush the same, • at least part (21;31) of one or both jaws being moveably mounted against a resistance (24; 34,35) such that under the force of the advancing spigot at least part of one or both jaws can release sufficiently to allow the spigot to pass into the tube, while retaining the tube in the apparatus; • a microprocessor to control movement of the advancing means and the gripping means during insertion of the spigot into the flexible tube; • the microprocessor being programmed to include the steps of: • closing the jaws to initially grip the tube, • fully advancing a spigot into a tube and • opening the jaws when the tube is fully inserted, • the microprocessor being programmed to include the steps of: • closing the jaws to initially grip the tube, • fully advancing a spigot into a tube and • opening the jaws when the tube is fully inserted, • initial advancing the spigot partially into the tube, • opening the jaws to allow the tube to relax, • re-closing the jaws for further advance of the spigot further into the tube.
A device for steering an agricultural device which can be attached to a tractor and has at least one steerable axle, comprising a steering actuator for guiding said axle and/or the at least one wheel of the agricultural device provided thereon, as well as a steering angle control device for actuating the steering actuator, characterized in that the steering angle control device uses a tractor cornering signal provided on a data bus system of the tractor, which represents the steering lock angle of the steered tractor axle, for determining the actuation signal for the steering actuator of the agricultural device and actuates the steering actuator of the agricultural device in dependence on the steering lock angle of the steered tractor axle.
Antenna apparatus for connection to a fill level measurement device, the antenna apparatus comprising: an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected from the filling material surface; a drive shaft for rotating the antenna unit about the drive axis while the measurement signal is being emitted; a first energy store for supplying the antenna apparatus with the electrical energy required for the operation thereof, wherein the antenna unit comprises an array of radiator elements, which is designed to emit the measurement signal and to receive the reflected measurement signal; and wherein the first energy store is attached to the antenna apparatus such that it rotates with the antenna unit when said unit is rotated by the drive shaft. an antenna unit for emitting a measurement signal towards a filling material surface and for receiving the measurement signal reflected from the filling material surface; a drive shaft for rotating the antenna unit about the drive axis while the measurement signal is being emitted; a first energy store for supplying the antenna apparatus with the electrical energy required for the operation thereof, wherein the antenna unit comprises an array of radiator elements, which is designed to emit the measurement signal and to receive the reflected measurement signal; and wherein the first energy store is attached to the antenna apparatus such that it rotates with the antenna unit when said unit is rotated by the drive shaft.
Method for preparing a powder of an alloy based on uranium and comprising molybdenum, in a metastable γ phase, which method comprises: a) putting at least one first reagent selected from uranium oxides and mixtures thereof, uranium fluorides and mixtures thereof, into contact with a second reagent consisting in molybdenum and a third reagent consisting in a reducing metal, the first, second and third reagents being in a divided form; b) reacting the so contacted reagents at a temperature at least equal to the melting temperature of the third reagent and under an inert atmosphere, whereby this reaction leads to the formation of the alloy based on uranium and comprising molybdenum, in the form of a powder, the particles of which are covered with a reducing metal oxide or fluoride layer; c) cooling the so formed powder at a rate at least equal to 450°C/hour; and d) removing the reducing metal oxide or fluoride layer which covers the particles of the powder of the alloy based on uranium and comprising molybdenum. a) putting at least one first reagent selected from uranium oxides and mixtures thereof, uranium fluorides and mixtures thereof, into contact with a second reagent consisting in molybdenum and a third reagent consisting in a reducing metal, the first, second and third reagents being in a divided form; b) reacting the so contacted reagents at a temperature at least equal to the melting temperature of the third reagent and under an inert atmosphere, whereby this reaction leads to the formation of the alloy based on uranium and comprising molybdenum, in the form of a powder, the particles of which are covered with a reducing metal oxide or fluoride layer; c) cooling the so formed powder at a rate at least equal to 450°C/hour; and d) removing the reducing metal oxide or fluoride layer which covers the particles of the powder of the alloy based on uranium and comprising molybdenum.
A method for performing cell management in a heterogeneous network deployment scenario in which a macro Macro eNB provides macro coverage, and a local eNB provides hotspot coverage within a range of the macro coverage, said method comprising: receiving, by a User Equipment UE, a notification of managing cells controlled by the local eNB from the Macro eNB or the local eNB; wherein the UE aggregates resources of the Macro eNB and the local eNB, and a Radio Resource Control connection of the UE is maintained under the Macro eNB; wherein the cells controlled by the local eNB comprise a primary cell and a secondary cell for carrier aggregation by the UE; and managing, by the UE, cells controlled by the local eNB according to the notification; wherein managing the cells controlled by the local eNB comprises at least one of the following: selecting or changing the primary cell controlled by the local eNB, adding or deleting the secondary cell controlled by the local eNB, or modifying configuration information of the secondary cell controlled by the local eNB. receiving, by a User Equipment UE, a notification of managing cells controlled by the local eNB from the Macro eNB or the local eNB; wherein the UE aggregates resources of the Macro eNB and the local eNB, and a Radio Resource Control connection of the UE is maintained under the Macro eNB; wherein the cells controlled by the local eNB comprise a primary cell and a secondary cell for carrier aggregation by the UE; and managing, by the UE, cells controlled by the local eNB according to the notification; wherein managing the cells controlled by the local eNB comprises at least one of the following: selecting or changing the primary cell controlled by the local eNB, adding or deleting the secondary cell controlled by the local eNB, or modifying configuration information of the secondary cell controlled by the local eNB.
A composite material, comprising: 20 to 40 weight percent (wt.%) of a polymerizable component; 4 to 50 wt.% of ceramic fibers; and 20 to 70 wt.% of nanoclusters, where the wt.% values of the composite material are based on a total weight of the composite material and total to a value of 100 wt.%, and where each of the ceramic fibers has a length and where the length of fifty percent of the ceramic fibers, based on a total number of the ceramic fibers, is at least 50 micrometers and the length of ninety percent of the ceramic fibers, based on the total number of the ceramic fibers, is no greater than 500 micrometers, wherein nanoclusters are a group of two or more nanoparticles associated by relatively weak, but sufficient intermolecular forces that cause the nanoparticles to clump to together, and nanoparticles are discrete non-fumed metal oxide nanoparticles. 20 to 40 weight percent (wt.%) of a polymerizable component; 4 to 50 wt.% of ceramic fibers; and 20 to 70 wt.% of nanoclusters, where the wt.% values of the composite material are based on a total weight of the composite material and total to a value of 100 wt.%, and where each of the ceramic fibers has a length and where the length of fifty percent of the ceramic fibers, based on a total number of the ceramic fibers, is at least 50 micrometers and the length of ninety percent of the ceramic fibers, based on the total number of the ceramic fibers, is no greater than 500 micrometers, wherein nanoclusters are a group of two or more nanoparticles associated by relatively weak, but sufficient intermolecular forces that cause the nanoparticles to clump to together, and nanoparticles are discrete non-fumed metal oxide nanoparticles.
A data processing apparatus, comprising: a processor, configured to determine a computation parallelism degree according to the number of antennas and pilot frequency information, acquire antenna data and channel estimation matrices of respective users, store the antenna data and the channel estimation matrices in groups in a memory, and determine, according to the computation parallelism degree, target antenna data processed in parallel by an arithmetic unit in a single computation, wherein the target antenna data is part of the antenna data of the respective users; the memory, configured to store the antenna data and the channel estimation matrices in groups, and output the target antenna data and the channel estimation matrices to the arithmetic unit; and the arithmetic unit, configured to compute user data based on the target antenna data and the channel estimation matrices; wherein the computation parallelism degree is the number of resource elements in each resource block of each user that is processed in parallel in each iterative computation; wherein determine, according to the computation parallelism degree, target antenna data processed in parallel by an arithmetic unit in a single computation comprises: determine that the target antenna data is the same resource element of N users, N being the computation parallelism degree; or, determine that the target antenna data is N resource elements of the same user. a processor, configured to determine a computation parallelism degree according to the number of antennas and pilot frequency information, acquire antenna data and channel estimation matrices of respective users, store the antenna data and the channel estimation matrices in groups in a memory, and determine, according to the computation parallelism degree, target antenna data processed in parallel by an arithmetic unit in a single computation, wherein the target antenna data is part of the antenna data of the respective users; the memory, configured to store the antenna data and the channel estimation matrices in groups, and output the target antenna data and the channel estimation matrices to the arithmetic unit; and the arithmetic unit, configured to compute user data based on the target antenna data and the channel estimation matrices; wherein the computation parallelism degree is the number of resource elements in each resource block of each user that is processed in parallel in each iterative computation; wherein determine, according to the computation parallelism degree, target antenna data processed in parallel by an arithmetic unit in a single computation comprises: determine that the target antenna data is the same resource element of N users, N being the computation parallelism degree; or, determine that the target antenna data is N resource elements of the same user.
Method for determining a compression speed (Vs) of a shock absorber of a bicycle with a drive motor, the shock absorber being arranged between a bicycle frame and a rear wheel suspension system of the bicycle, the method comprising the following steps: • detecting of an angular velocity ω rad of the rear wheel of the bicycle, characterized in that the method comprises the following further steps: • detecting of a motor rotational speed (n M) of the drive motor, and • determining of the compression speed (Vs) of the shock absorber in a manner which is dependent on the detected angular velocity (ω rad) and the detected motor rotational speed (n M). • detecting of an angular velocity ω rad of the rear wheel of the bicycle, characterized in that the method comprises the following further steps: • detecting of a motor rotational speed (n M) of the drive motor, and • determining of the compression speed (Vs) of the shock absorber in a manner which is dependent on the detected angular velocity (ω rad) and the detected motor rotational speed (n M).
An apparatus for the vacuum-tight leading of an electric line through a high barrier film, comprising: a hollow pipe having a collar projecting therefrom; a high barrier film having a passage hole through which the hollow pipe runs; and a pressing element that is arranged at the side of the high barrier film that is remote from the collar and that urges the high barrier film toward the collar, wherein the high barrier film is arranged between the collar of the hollow pipe and the pressing element and an electric line runs in the hollow pipe that leads from the one side of the high barrier film to its other side; characterized in that a sealing compound is present in the hollow pipe for the vacuum-tight closing of the hollow pipe; and in that the apparatus is furthermore provided with a sealing element that has a passage hole through which the hollow pipe runs; with the sealing element being arranged between the collar and the high barrier film or between the high barrier film and the pressing element; and in that the apparatus is configured such that the sealing element melts on exertion of a pressing force by the pressing element; and compensates irregularities between the collar and the pressing element that presses the high barrier film toward the collar from the other side. a hollow pipe having a collar projecting therefrom; a high barrier film having a passage hole through which the hollow pipe runs; and a pressing element that is arranged at the side of the high barrier film that is remote from the collar and that urges the high barrier film toward the collar, wherein the high barrier film is arranged between the collar of the hollow pipe and the pressing element and an electric line runs in the hollow pipe that leads from the one side of the high barrier film to its other side; characterized in that a sealing compound is present in the hollow pipe for the vacuum-tight closing of the hollow pipe; and in that the apparatus is furthermore provided with a sealing element that has a passage hole through which the hollow pipe runs; with the sealing element being arranged between the collar and the high barrier film or between the high barrier film and the pressing element; and in that the apparatus is configured such that the sealing element melts on exertion of a pressing force by the pressing element; and compensates irregularities between the collar and the pressing element that presses the high barrier film toward the collar from the other side.
A vacuum cleaner, comprising: a drum mounted with a brush; a first motor configured to rotate the drum; a sensor configured to sense a load applied to the first motor; a second motor configured to generate suction pressure; and a processor, and characterised in that: the processor is configured to, based on the load sensed from the sensor being greater than or equal to a first threshold value, reduce a speed of the second motor. a drum mounted with a brush; a first motor configured to rotate the drum; a sensor configured to sense a load applied to the first motor; a second motor configured to generate suction pressure; and a processor, and characterised in that: the processor is configured to, based on the load sensed from the sensor being greater than or equal to a first threshold value, reduce a speed of the second motor.