mhurhangee/patent-ind-claim-en huggingface dataset:
A composite material comprising: an interconnected network comprising a material that is thermally conductive and electrically insulative, wherein the material comprises a multilayer hexagonal boron nitride; and a polymer comprising a polyimide, wherein the interconnected network is about 0.3 vol% or less of the composite material . an interconnected network comprising a material that is thermally conductive and electrically insulative, wherein the material comprises a multilayer hexagonal boron nitride; and a polymer comprising a polyimide, wherein the interconnected network is about 0.3 vol% or less of the composite material .
A method of transmitting, by a terminal , control information in a wireless communication system, the method comprising: receiving downlink data; and transmitting a hybrid automatic retransmission request-acknowledgement, HARQ-ACK, for the downlink data, wherein the HARQ-ACK is transmitted through a y-symbol length physical uplink control channel, PUCCH, characterized in that in a case in which a x-symbol length PUCCH with a scheduling request, SR, overlaps in time with the y-symbol length PUCCH, and the x-symbol length is greater than the y-symbol length: the terminal drops the x-symbol length PUCCH and determines not to transmit the SR based on that the overlapped time does not correspond to an SR resource timing of the y-symbol length PUCCH. receiving downlink data; and transmitting a hybrid automatic retransmission request-acknowledgement, HARQ-ACK, for the downlink data, wherein the HARQ-ACK is transmitted through a y-symbol length physical uplink control channel, PUCCH, characterized in that in a case in which a x-symbol length PUCCH with a scheduling request, SR, overlaps in time with the y-symbol length PUCCH, and the x-symbol length is greater than the y-symbol length: the terminal drops the x-symbol length PUCCH and determines not to transmit the SR based on that the overlapped time does not correspond to an SR resource timing of the y-symbol length PUCCH.
A composition for treating damaged or diseased bone in a patient, comprising endothelial progenitor cells (EPCs) and mesenchymal stem cells (MSCs), wherein the composition includes the EPCs and MSCs in a respective cell number ratio of at least 2:1, wherein the composition also comprises a solid carrier material, and wherein the solid carrier material comprises a collagenous extracellular matrix (ECM) tissue material that includes native heparin from a source tissue for the collagenous ECM tissue material.
A method, comprising: determining , at a network entity , a first distance between a first base station and a second base station based on a handover indication received from a user equipment; determining , by the network entity , a second distance between a point of signal loss and a point of signal acquisition of the user equipment; estimating , by the network entity , one or more network coverage areas based upon the first distance and the second distance; and reporting, by the network entity , the estimate to a network operator. determining , at a network entity , a first distance between a first base station and a second base station based on a handover indication received from a user equipment; determining , by the network entity , a second distance between a point of signal loss and a point of signal acquisition of the user equipment; estimating , by the network entity , one or more network coverage areas based upon the first distance and the second distance; and reporting, by the network entity , the estimate to a network operator.
A method for characterising the evolution of a subsurface volume over time, said method comprising: providing a first survey of the subsurface volume with a first set of seismic traces corresponding to a first time; providing a second survey of the subsurface volume with a second set of seismic traces corresponding to a second time; performing an inversion to obtain estimates of changes having occurred between said first time and said second time in terms of at least one model parameter; wherein said subsurface volume is divided into geological layers according to facies attributed in accordance with the layer's geologic characteristics, and said inversion is constrained per layer of subsurface volume; and wherein said inversion comprises inverting for coefficients of a regional function at each spatial location within a layer, wherein said regional function describes how the model parameter varies within a layer. providing a first survey of the subsurface volume with a first set of seismic traces corresponding to a first time; providing a second survey of the subsurface volume with a second set of seismic traces corresponding to a second time; performing an inversion to obtain estimates of changes having occurred between said first time and said second time in terms of at least one model parameter; wherein said subsurface volume is divided into geological layers according to facies attributed in accordance with the layer's geologic characteristics, and said inversion is constrained per layer of subsurface volume; and wherein said inversion comprises inverting for coefficients of a regional function at each spatial location within a layer, wherein said regional function describes how the model parameter varies within a layer.
A radial or diagonal ventilator, having an impeller and a cylindrical drive unit , which can be rotated around the longitudinal axis, wherein the impeller can be operatively connected to the drive unit in two fastening planes, wherein the impeller has a base plate and blades arranged on the base plate, and wherein the blades are located on the side of the base plate facing the main air flow, wherein the base plate is composed of an upper shell (102, 401a-d) located on the side facing the main air flow, and of a lower shell (103, 402a-d) located on the side facing away from the main air flow, wherein, in the mounted state, the upper shell (102, 401a-d) and the lower shell (103, 402a-d) form a closed hollow space with the cylindrical drive unit , wherein a first fastening plane is arranged at the upper shell (102, 401a-d), and a second fastening plane is arranged at the lower shell (103, 402a-d), characterized in that fastening means (406c-d, 407, 408, 409c-d) are located in the respective fastening plane on the edge of the upper shell (102, 401a-d) and of the lower shell (103, 402a-d) facing the drive unit , and the drive unit has two flanges (202, 203, 403a-d, 404a-d, 602, 603), which are offset in the longitudinal axis, wherein the flanges (202, 203, 403a-d, 404a-d, 602, 603) have fastening means (406a-b, 409a-b, 410, 411), which can be releasably connected to the fastening means (406c-d, 407, 408, 409c-d) of the impeller , and wherein the upper shell (102, 401a-d) and the lower shell (103, 402a-d) are connected by means of screw connections to flanges (202, 403a-d, 602, 203, 404a-d, 603), which are arranged at the cylindrical drive unit so as to be offset in the longitudinal axis, wherein the fastening means (408, 409c-d) in the upper shell (102, 401a-d) relative to the longitudinal axis of the rotatable cylindrical drive unit , are arranged radially offset to the fastening means (406c-d, 407) of the lower shell (103, 402a-d), and mounting holes (405c-d) are arranged in the upper shell (102, 401a-d) and/or in the lower shell (103, 402a-d) opposite from the fastening means (406a-d, 407, 408, 409a-d, 410, 411, 412), which are concealed in the mounted state, wherein the mounting holes (405c-d) have a larger diameter than the holes in the lower shell (406c-d) and in the upper shell (409c-d).
A method for recovering support materials used in an additive manufacturing process, the method comprising, (i) providing a precursor fused filament fabrication additive manufactured article comprised of a water soluble support polymer and an insoluble material, (ii) exposing the precursor additive manufactured article to water such that the water soluble support polymer is dissolved in the water to form (a) an aqueous solution of the water soluble support polymer and water and (b) a finished additive manufactured article, (iii) removing the final additive manufactured article from the aqueous solution, (iv) precipitating the water soluble support polymer from the aqueous solution to form a precipitate of the water soluble support polymer, (v) separating the precipitate from the water, and (vi) removing any water remaining from the precipitate of the water soluble support polymer. (i) providing a precursor fused filament fabrication additive manufactured article comprised of a water soluble support polymer and an insoluble material, (ii) exposing the precursor additive manufactured article to water such that the water soluble support polymer is dissolved in the water to form (a) an aqueous solution of the water soluble support polymer and water and (b) a finished additive manufactured article, (iii) removing the final additive manufactured article from the aqueous solution, (iv) precipitating the water soluble support polymer from the aqueous solution to form a precipitate of the water soluble support polymer, (v) separating the precipitate from the water, and (vi) removing any water remaining from the precipitate of the water soluble support polymer.
A cathode stripping machine having a metal deposit in the form of a sheet on each one of the two opposite faces thereof, characterized in that it comprises - a first operating level and a second reception level located below the first level; - wherein the first level comprises an infeed mechanism of the cathodes in the machine, a first transfer mechanism (8.1) for transferring said cathodes inside the machine, a treatment mechanism with a stripping head having two stripping frames , each acting on one cathode simultaneously, a second transfer mechanism (8.2) for transferring the cathodes, and an outfeed mechanism of the cathodes without sheets, and; - wherein the second level comprises for each of the two resulting sheets, a sheet reception system , a conveyor belt , and a sheet removal station , as well as a shared collection and weighing table with rollers for both sheets. - a first operating level and a second reception level located below the first level; - wherein the first level comprises an infeed mechanism of the cathodes in the machine, a first transfer mechanism (8.1) for transferring said cathodes inside the machine, a treatment mechanism with a stripping head having two stripping frames , each acting on one cathode simultaneously, a second transfer mechanism (8.2) for transferring the cathodes, and an outfeed mechanism of the cathodes without sheets, and; - wherein the second level comprises for each of the two resulting sheets, a sheet reception system , a conveyor belt , and a sheet removal station , as well as a shared collection and weighing table with rollers for both sheets.
The use of a copolymer consisting of N-isopropylacrylamide units, tert-butyl methacrylate units and optionally at least one cross-linking agent as a soil-release active ingredient in textile care products for textiles.
Wheel bearing arrangement for a motor vehicle, wherein the wheel bearing arrangement has a rotating component , a fixed component (14-1), as well as a sealing arrangement, wherein the sealing arrangement comprises a sealing body with a sealing lip , wherein the sealing body is arranged at the fixed component (14-1) of the wheel bearing arrangement and the sealing lip rest on a sealing surface of the rotating component of the wheel bearing arrangement , characterised in that on the sealing surface is applied a film which has a layer thickness (d) of d ≤ 0,3 mm and a surface quality with a roughness depth (Rz) of Rz ≤ 10μm, wherein the film is connected by means of adhesive bonding in a material-fitting manner or by means of shrink fitting in a force-fitting manner to the sealing surface .
Wrapping machine for making a composed palletized load comprising a plurality of partial palletized loads wrapped with a stretchable plastic film , comprising: - a first operating station to individually and separately wrap said partial palletized loads with said film ; - conveyor means (11, 12, 13; 31, 32, 33) to move along an advancing direction (X) said partial palletized loads inside, towards and outside from said first operating station ; characterised in that it further comprises - a second operating station to arrange said plurality of partial palletized loads in a grouped configuration (A), in which they are adjacent and placed side by side, and then joint said plurality of partial palletized loads by a second type of film being a substantially non-stretchable adhesive film in order to make said composed palletized load . - a first operating station to individually and separately wrap said partial palletized loads with said film ; - conveyor means (11, 12, 13; 31, 32, 33) to move along an advancing direction (X) said partial palletized loads inside, towards and outside from said first operating station ; characterised in that it further comprises - a second operating station to arrange said plurality of partial palletized loads in a grouped configuration (A), in which they are adjacent and placed side by side, and then joint said plurality of partial palletized loads by a second type of film being a substantially non-stretchable adhesive film in order to make said composed palletized load .
An implantable single chamber cardiac pacemaker comprising a pulse generator having a microprocessor configured to create a virtual chamber of a heart ; wherein the microprocessor is pre-programmed to time the pacing pulses delivered by the pulse generator, according to one or more dual chamber algorithms, based on the virtual chamber; the pacemaker further comprising: implantable electrodes , coupled to the pulse generator; means for sensing intrinsic ventricular events coupled to the electrodes; means for delivering pacing pulses coupled to the electrodes; and wherein the microprocessor operates to create the virtual chamber by constructing a virtual atrium by creating virtual sensed atrial events and virtual paced atrial events, the virtual sensed atrial events created according to a defined virtual sensed AV interval, and the virtual paced atrial events created according to a defined virtual paced AV interval and wherein the processor defines the virtual sensed and paced AV intervals being based upon sensed intrinsic ventricular events; and wherein the microprocessor times delivery of the pacing pulses by means of the electrodes to create a paced ventricular event that is timed according to either the virtual paced AV interval or the virtual sensed AV interval, responsive to an intrinsic ventricular event not being sensed prior to the expiration thereof. implantable electrodes , coupled to the pulse generator; means for sensing intrinsic ventricular events coupled to the electrodes; means for delivering pacing pulses coupled to the electrodes; and wherein the microprocessor operates to create the virtual chamber by constructing a virtual atrium by creating virtual sensed atrial events and virtual paced atrial events, the virtual sensed atrial events created according to a defined virtual sensed AV interval, and the virtual paced atrial events created according to a defined virtual paced AV interval and wherein the processor defines the virtual sensed and paced AV intervals being based upon sensed intrinsic ventricular events; and wherein the microprocessor times delivery of the pacing pulses by means of the electrodes to create a paced ventricular event that is timed according to either the virtual paced AV interval or the virtual sensed AV interval, responsive to an intrinsic ventricular event not being sensed prior to the expiration thereof.
A battery management apparatus , comprising: a sensing unit configured to measure a charging voltage as a function of a SOC, State Of Charge, of a battery (B) having an electrode made of various kinds of electrode active materials when the battery is charged from 0% to 100% SOC and to measure a discharging voltage as a function of the SOC of the battery when the battery is discharged from 100% to 0% SOC; and a processor (130, 130', 130") configured to calculate, as a function of the SOC, a voltage difference between the charging voltage as a function of the SOC and the discharging voltage as a function of the SOC, set a degraded SOC region (Rag) based on the voltage differences, and estimate a degree of degradation of the battery based on at least one of: a degraded region voltage difference corresponding to a SOC included in the degraded SOC region among the voltage differences; and the number of charge and discharge cycles of the battery in the degraded SOC region, wherein the processor is configured to calculate a voltage difference ratio of each of the voltage differences to a first voltage difference (Va) having a greatest voltage difference among the voltage differences, and set the degraded SOC region by comparing the calculated voltage difference ratio with a reference ratio, wherein the degraded SOC region comprises all SOC corresponding to a voltage difference ratio equal to or greater than the reference ratio. a sensing unit configured to measure a charging voltage as a function of a SOC, State Of Charge, of a battery (B) having an electrode made of various kinds of electrode active materials when the battery is charged from 0% to 100% SOC and to measure a discharging voltage as a function of the SOC of the battery when the battery is discharged from 100% to 0% SOC; and a processor (130, 130', 130") configured to calculate, as a function of the SOC, a voltage difference between the charging voltage as a function of the SOC and the discharging voltage as a function of the SOC, set a degraded SOC region (Rag) based on the voltage differences, and estimate a degree of degradation of the battery based on at least one of: a degraded region voltage difference corresponding to a SOC included in the degraded SOC region among the voltage differences; and the number of charge and discharge cycles of the battery in the degraded SOC region, a degraded region voltage difference corresponding to a SOC included in the degraded SOC region among the voltage differences; and the number of charge and discharge cycles of the battery in the degraded SOC region, wherein the processor is configured to calculate a voltage difference ratio of each of the voltage differences to a first voltage difference (Va) having a greatest voltage difference among the voltage differences, and set the degraded SOC region by comparing the calculated voltage difference ratio with a reference ratio, wherein the degraded SOC region comprises all SOC corresponding to a voltage difference ratio equal to or greater than the reference ratio.
A mower combination comprising an agricultural vehicle together with a front work unit and two lateral work units located behind and to the sides of the front work unit , the front work unit having a front connection to a front of the agricultural vehicle and the lateral work units sharing a rear connection to a rear of the agricultural vehicle , each of the work units depositing a cut crop as a swath , one or more sensors for determining a height of the rear connection above a ground surface, a control unit for controlling a height of the front and rear connections above a ground surface, characterised in that if the height of the rear connection is determined to deviate from a predetermined value, the control unit causes the height of the rear connection to be adjusted towards the predetermined value.
An electronic device comprising: a display panel ; and a first antenna (310a to 310d, 300-Rb) disposed on the display panel and comprising a first patch part (311, 301b-1), a first transmission part , and a first additional transmission part , wherein the first transmission part faces a first side of the first patch part extending in a first cross direction, is spaced apart from the first patch part, and is capacitively coupled with the first patch part , and wherein the first additional transmission part faces another first side of the first patch part extending in a second cross direction crossing the first cross direction, is symmetrical about a line of symmetry with the first transmission part , and is spaced apart from the first patch part ; characterized in that the first antenna (300-Rb) further comprises a first extension patch part (301b-2) spaced apart from the first patch part (301b-1), and wherein the first transmission part extends toward the first extension patch part (301b-2), faces a first extension side extending in the first cross direction of the first extension patch part (301b-2), is spaced apart from the first extension patch part (301b-2), and is capacitively coupled to the first extension patch part (301b-2), wherein the first antenna is configured such that power input through the first transmission part is equally delivered to the first patch part (301b-1) and the first extension patch part (301b-2). a display panel ; and a first antenna (310a to 310d, 300-Rb) disposed on the display panel and comprising a first patch part (311, 301b-1), a first transmission part , and a first additional transmission part , wherein the first transmission part faces a first side of the first patch part extending in a first cross direction, is spaced apart from the first patch part, and is capacitively coupled with the first patch part , and wherein the first additional transmission part faces another first side of the first patch part extending in a second cross direction crossing the first cross direction, is symmetrical about a line of symmetry with the first transmission part , and is spaced apart from the first patch part ; characterized in that the first antenna (300-Rb) further comprises a first extension patch part (301b-2) spaced apart from the first patch part (301b-1), and wherein the first transmission part extends toward the first extension patch part (301b-2), faces a first extension side extending in the first cross direction of the first extension patch part (301b-2), is spaced apart from the first extension patch part (301b-2), and is capacitively coupled to the first extension patch part (301b-2), wherein the first antenna is configured such that power input through the first transmission part is equally delivered to the first patch part (301b-1) and the first extension patch part (301b-2).
A child play enclosure frame, comprising a plurality of vertical rods , each provided with an upper frame corner joint and a lower frame corner joint , a collapsible upper frame connected to a plurality of the upper frame corner joints , a collapsible lower frame connected to a plurality of the lower frame corner joints , and an upper frame locking device used to lock the upper frame in an extended position, wherein the lower frame comprises a central seat located at its center, and a plurality of bottom link sets connecting the central seat with a corresponding plurality of the lower frame corner joints , and the number of the vertical rods is the same as that of the bottom link sets , wherein, the central seat comprises an upper center set and a lower center set that can move vertically relative to each other; each of the bottom link sets comprises a first bottom rod and a second bottom rod that are pivotally connected around a first bottom axle (X1); one end of a third bottom rod plus the second bottom rod are pivotally connected around a second bottom axle (X2), wherein one end of the first bottom rod and the upper center set are pivotally connected around a third bottom axle (X3); one end of the second bottom rod and the lower center set are pivotally connected around a fourth bottom axle (X4); the other end of the first bottom rod and the upper part of the lower frame corner joint are pivotally connected around a fifth bottom axle (X5); and the other end of the third bottom rod and the lower part of the lower frame corner joint are pivotally connected around a sixth bottom axle (X6).