mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation of a network node in a wireless communications network to allocate one or more radio resources to two or more traffic partitions comprising: obtaining radio resource allocation policies for the two or more traffic partitions, wherein a traffic partition is defined to include one or more of transmissions having a similar Quality of Service, QoS, and/or transmissions using a predetermined service, and/or transmissions to/from a predetermined destination; obtaining radio resource usage for the two or more traffic partitions across multiple resource dimensions, wherein the multiple resource dimensions comprise at least channel-time, radio frequency spectrum, spatial usage of media, and capability of at least two of the group consisting of: transmissions in a plurality of Multi-User Multiple-Input Multiple-Output, MU-MIMO; transmissions in a plurality of Radio Frequency, RF, channels; and transmissions in a plurality of wireless access points; and allocating the one or more radio resources to the two or more traffic partitions based on the radio resource usage of the two or more traffic partitions across the multiple resource dimensions and the radio resource allocation policies for the two or more traffic partitions, wherein the one or more radio resources comprises at least channel-time, and wherein each of the two or more traffic partitions are associated with a percentage limit of the one or more radio resources included in the radio resource allocation policies. obtaining radio resource allocation policies for the two or more traffic partitions, wherein a traffic partition is defined to include one or more of transmissions having a similar Quality of Service, QoS, and/or transmissions using a predetermined service, and/or transmissions to/from a predetermined destination; obtaining radio resource usage for the two or more traffic partitions across multiple resource dimensions, wherein the multiple resource dimensions comprise at least channel-time, radio frequency spectrum, spatial usage of media, and capability of at least two of the group consisting of: transmissions in a plurality of Multi-User Multiple-Input Multiple-Output, MU-MIMO; transmissions in a plurality of Radio Frequency, RF, channels; and transmissions in a plurality of wireless access points; and transmissions in a plurality of Multi-User Multiple-Input Multiple-Output, MU-MIMO; transmissions in a plurality of Radio Frequency, RF, channels; and transmissions in a plurality of wireless access points; and allocating the one or more radio resources to the two or more traffic partitions based on the radio resource usage of the two or more traffic partitions across the multiple resource dimensions and the radio resource allocation policies for the two or more traffic partitions, wherein the one or more radio resources comprises at least channel-time, and wherein each of the two or more traffic partitions are associated with a percentage limit of the one or more radio resources included in the radio resource allocation policies.
A polyethylene terephthalate resin composition, having a manganese element content of 30 to 60 ppm, a potassium element content of 2 to 10 ppm, and an antimony element content of 70 to 150 ppm with respect to the total weight of elements of the polyethylene terephthalate resin composition, wherein a molar ratio of metal elements to phosphorus element, (M/P = (M1 + M2 / 2) / P), satisfies the following formula: 0.6 ≤ M 1 + M 2 / 2 / P ≤ 1.3 (wherein M1 represents the content (mol/t) of a bivalent metal element selected from the group consisting of Mg, Mn, and Ca; M2 represents the content (mol/t) of a monovalent metal element selected from the group consisting of Li, Na, and K; and P represents the content (mol/t) of phosphorus element.); and wherein the composition has a gelation ratio of 5% by weight or less, wherein the manganese element content, the potassium element content, the antimony element content, the phosphorus element content and the gelation ratio are measured by methods as set out in the description respectively. (wherein M1 represents the content (mol/t) of a bivalent metal element selected from the group consisting of Mg, Mn, and Ca; M2 represents the content (mol/t) of a monovalent metal element selected from the group consisting of Li, Na, and K; and P represents the content (mol/t) of phosphorus element.); and wherein the composition has a gelation ratio of 5% by weight or less, wherein the manganese element content, the potassium element content, the antimony element content, the phosphorus element content and the gelation ratio are measured by methods as set out in the description respectively.
A method for filling gas cylinders comprising the steps of: a) conveying a stream of liquified gas from at least one gas source to at least one heat exchanger , b) conducting a phase transition of the stream of liquified gas into gas in at least one heat exchanger , while cooling a first working medium , c) conveying an output gas stream to at least one cylinder filling station , d) filling gas into at least one cylinder , characterized in that the method further comprises the process of cooling the filling cylinder comprising: e) conveying the first working medium from at least one heat exchanger to at least one insulated buffer tank, f) conducting heat exchange between the first working medium and a heat-accumulating medium in at least one insulated buffer tank, g) conducting heat exchange between the heat-accumulating medium , and a second working medium in at least one insulated buffer tank, h) conveying the second working medium from at least one insulated buffer tank to at least one cooling device comprising at least one air cooler and at least one blowing fan, wherein at least one cooling device is located adjacent to at least one cylinder filling station, i) conducting heat exchange between the second working medium and air in at least one air cooler, j) blowing air substantially towards at least one gas cylinder filling station. a) conveying a stream of liquified gas from at least one gas source to at least one heat exchanger , b) conducting a phase transition of the stream of liquified gas into gas in at least one heat exchanger , while cooling a first working medium , c) conveying an output gas stream to at least one cylinder filling station , d) filling gas into at least one cylinder , e) conveying the first working medium from at least one heat exchanger to at least one insulated buffer tank, f) conducting heat exchange between the first working medium and a heat-accumulating medium in at least one insulated buffer tank, g) conducting heat exchange between the heat-accumulating medium , and a second working medium in at least one insulated buffer tank, h) conveying the second working medium from at least one insulated buffer tank to at least one cooling device comprising at least one air cooler and at least one blowing fan, wherein at least one cooling device is located adjacent to at least one cylinder filling station, i) conducting heat exchange between the second working medium and air in at least one air cooler, j) blowing air substantially towards at least one gas cylinder filling station.
A wireless device, WD , configured to communicate with a network node , the WD comprising processing circuitry , the processing circuitry being configured to cause the WD to: determine information about a transmit antenna configuration of the network node ; determine information about an activity level of the WD ; determine a number of wake up signal, WUS, repetitions based on the transmit antenna configuration and the activity level; and receive a WUS signal, the WUS signal comprising at least the determined number of WUS repetitions; wherein the activity level is a discontinuous reception, DRX, cycle length. determine information about a transmit antenna configuration of the network node ; determine information about an activity level of the WD ; determine a number of wake up signal, WUS, repetitions based on the transmit antenna configuration and the activity level; and receive a WUS signal, the WUS signal comprising at least the determined number of WUS repetitions; wherein the activity level is a discontinuous reception, DRX, cycle length.
A pain sensory nerve stimulation apparatus comprising: an electrode portion including: a first electrode , a tip end of which is adapted to be inserted into a skin; and at least one second electrode which is disposed in a circumference of the first electrode without being electrically conductive with the first electrode , and which is adapted to be in contact with a skin; a stimulation signal supplying unit , supplying a bipolar stimulation signal between the first electrode and the second electrode , the bipolar stimulation signal including a first waveform signal and a second waveform signal, the first waveform signal which is convex in a negative direction in the first electrode (cathode simulation); the second waveform signal which is convex in a positive direction in the first electrode (cathode simulation); and a stimulation intensity controlling unit, configured to change at least one of a voltage and a current of each of the first and second waveform signals to change stimulation intensity, characterised in that the apparatus is configured such that C-fibres can be selectively stimulated at a weak stimulation intensity and that by changing the stimulation intensity C fibers, Aδ fibers and Aβ fibers can be stimulated in a sequence which is opposite to an excitability sequence. a first electrode , a tip end of which is adapted to be inserted into a skin; and at least one second electrode which is disposed in a circumference of the first electrode without being electrically conductive with the first electrode , and which is adapted to be in contact with a skin; a stimulation signal supplying unit , supplying a bipolar stimulation signal between the first electrode and the second electrode , the bipolar stimulation signal including a first waveform signal and a second waveform signal, the first waveform signal which is convex in a negative direction in the first electrode (cathode simulation); the second waveform signal which is convex in a positive direction in the first electrode (cathode simulation); and a stimulation intensity controlling unit, configured to change at least one of a voltage and a current of each of the first and second waveform signals to change stimulation intensity, characterised in that the apparatus is configured such that C-fibres can be selectively stimulated at a weak stimulation intensity and that by changing the stimulation intensity C fibers, Aδ fibers and Aβ fibers can be stimulated in a sequence which is opposite to an excitability sequence.
Process for producing a composite material by injecting a cement composition into a polymer lattice by means of injection moulding, wherein as the cement composition a formulation having the following composition is admixed with water: 40 to 85% by volume of ceramic fillers , 14 to 59% by volume of at least one cement , 1 to 20% by volume of at least one polymer , 0 to 2% by volume of additives, based in each case on 100% by volume of the composite material , and then hydraulically setting the formulation. 40 to 85% by volume of ceramic fillers , 14 to 59% by volume of at least one cement , 1 to 20% by volume of at least one polymer , 0 to 2% by volume of additives, based in each case on 100% by volume of the composite material , and then hydraulically setting the formulation.
A terminal comprising: a receiving section configured to receive at least one synchronization signal block among a plurality of synchronization signal blocks, the at least one synchronization signal block including a synchronization signal and a broadcast channel; and a control section configured to determine a control resource set, corresponding to a second synchronization signal block of the plurality of synchronization signal blocks, for receiving system information based on information of frequency offset notified by the broadcast channel of a first synchronization signal block of the plurality of synchronization signal blocks. a receiving section configured to receive at least one synchronization signal block among a plurality of synchronization signal blocks, the at least one synchronization signal block including a synchronization signal and a broadcast channel; and a control section configured to determine a control resource set, corresponding to a second synchronization signal block of the plurality of synchronization signal blocks, for receiving system information based on information of frequency offset notified by the broadcast channel of a first synchronization signal block of the plurality of synchronization signal blocks.
A gypsum plasterboard comprising at least an upper gypsum layer having a first density, first hardness and first thickness and a lower gypsum layer having a second density, a second hardness and a second thickness, wherein the first thickness is lower than the second thickness, characterized in that the first density is lower than the second density and/or the first hardness is lower than the second hardness.
A method of generating a composite image from multiple images captured for a subject via a microscope, the method comprising: receiving, via an image capturing device coupled to the microscope, a plurality of sets of images of at least a portion of a subject, wherein images within a set of images from the plurality of sets of images are captured at a plurality of vertical positions with respect to an associated fixed region of a horizontal plane , wherein each image within a set of images is captured at a unique vertical position with respect to the associated fixed region of the horizontal plane , and wherein the associated fixed region of the horizontal plane for each of the plurality of sets of images is unique; generating a plurality of focus-stacked images corresponding to the plurality of sets of images, wherein generating a focus-stacked image from the plurality of focus-stacked images comprises combining the images in the associated set of images, and wherein generating a focus-stacked image from the plurality of focus-stacked images comprises performing translation and scale correction for images in the associated set of images based on a vertical coordinate transformation model (T) using one or more calibration parameters of the microscope, wherein the vertical coordinate transformation model allows to calculate a transformation between different horizontal planes along different vertical positions; and aligning the plurality of focus-stacked images in the horizontal plane based on a horizontal coordinate transformation model to generate a composite all-in-focus image representing the subject. receiving, via an image capturing device coupled to the microscope, a plurality of sets of images of at least a portion of a subject, wherein images within a set of images from the plurality of sets of images are captured at a plurality of vertical positions with respect to an associated fixed region of a horizontal plane , wherein each image within a set of images is captured at a unique vertical position with respect to the associated fixed region of the horizontal plane , and wherein the associated fixed region of the horizontal plane for each of the plurality of sets of images is unique; generating a plurality of focus-stacked images corresponding to the plurality of sets of images, wherein generating a focus-stacked image from the plurality of focus-stacked images comprises combining the images in the associated set of images, and wherein generating a focus-stacked image from the plurality of focus-stacked images comprises performing translation and scale correction for images in the associated set of images based on a vertical coordinate transformation model (T) using one or more calibration parameters of the microscope, wherein the vertical coordinate transformation model allows to calculate a transformation between different horizontal planes along different vertical positions; and aligning the plurality of focus-stacked images in the horizontal plane based on a horizontal coordinate transformation model to generate a composite all-in-focus image representing the subject.
A focus assist circuit for a camera viewfinder having an LCD, LED or OLED flat panel display, the focus assist circuit comprising: a video amplifier configured to amplify a video signal; a video gain controller configured to adjust a gain of the video amplifier to provide peaking headroom; a user interface including a contrast control and a peaking headroom control; and a peaking processor configured to adjust the amplified video signal to generate an output signal with distinguishing illuminated signal peaks when the output signal is emitted based on the LCD, the LED or the OLED flat panel display, wherein the video gain controller comprises a video gain signal generator configured to generate a video gain signal for adjusting the gain of the video amplifier based on a value of the contrast control selected by the user interface, and wherein the video gain controller further comprises a video gain limiter configured to limit the video gain signal based on a percentage of a maximum luminance of the camera viewfinder and based on the peaking headroom control selected by the user interface. a video amplifier configured to amplify a video signal; a video gain controller configured to adjust a gain of the video amplifier to provide peaking headroom; a user interface including a contrast control and a peaking headroom control; and a peaking processor configured to adjust the amplified video signal to generate an output signal with distinguishing illuminated signal peaks when the output signal is emitted based on the LCD, the LED or the OLED flat panel display, wherein the video gain controller comprises a video gain signal generator configured to generate a video gain signal for adjusting the gain of the video amplifier based on a value of the contrast control selected by the user interface, and wherein the video gain controller further comprises a video gain limiter configured to limit the video gain signal based on a percentage of a maximum luminance of the camera viewfinder and based on the peaking headroom control selected by the user interface.
An inorganic composite oxide material, comprising: (a) from 25 to 90 pbw Al 2 O 3 ; (b) from 5 to 35 pbw CeO 2 ; (c)(i) from 5 to 35 pbw MgO, or (c)(ii) from 2 to 20 pbw Pr 6 O 11 , or (c)(iii) from 5 to 35 pbw MgO, and from 2 to 20 pbw Pr 6 O 11 ; and (d) optionally up to 10 pbw of a combined amount of oxides of one or more dopants selected from transition metals, rare earths, and mixtures thereof, and exhibiting a BET specific surface area: • of greater than 150 m 2 /g after calcining at 900°C for 2 hours; or • of greater than 85 m 2 /g after calcining at 1000°C for 4 hours; or • of greater than 40 m 2 /g after calcining at 1100°C for 5 hours. (a) from 25 to 90 pbw Al 2 O 3 ; (b) from 5 to 35 pbw CeO 2 ; (c)(i) from 5 to 35 pbw MgO, or (c)(ii) from 2 to 20 pbw Pr 6 O 11 , or (c)(iii) from 5 to 35 pbw MgO, and from 2 to 20 pbw Pr 6 O 11 ; and (d) optionally up to 10 pbw of a combined amount of oxides of one or more dopants selected from transition metals, rare earths, and mixtures thereof, and exhibiting a BET specific surface area: • of greater than 150 m 2 /g after calcining at 900°C for 2 hours; or • of greater than 85 m 2 /g after calcining at 1000°C for 4 hours; or • of greater than 40 m 2 /g after calcining at 1100°C for 5 hours. • of greater than 150 m 2 /g after calcining at 900°C for 2 hours; or • of greater than 85 m 2 /g after calcining at 1000°C for 4 hours; or • of greater than 40 m 2 /g after calcining at 1100°C for 5 hours.
A piston sub-assembly, for use in forming the pump engine, the piston sub-assembly comprising: a stem having an interior space; a piston inserted in a portion of the interior space of the stem and comprising a piston point ; a plug in a portion of an interior space of the piston and extending through the piston into a portion of the interior space of the stem, the plug having a plug point , the plug point and the piston point forming a seal, characterised by a space between an exterior wall of the piston and an interior wall of the stem , wherein the space allows the piston to flex, breaking the seal between the plug point and the piston point. a stem having an interior space; a piston inserted in a portion of the interior space of the stem and comprising a piston point ; a plug in a portion of an interior space of the piston and extending through the piston into a portion of the interior space of the stem, the plug having a plug point , the plug point and the piston point forming a seal, characterised by a space between an exterior wall of the piston and an interior wall of the stem , wherein the space allows the piston to flex, breaking the seal between the plug point and the piston point.
A terminal comprising: a receiving section configured to receive an indicator related to power control; a control section configured to determine a transmission power in accordance with a transmission power parameter set determined from a first index associated with the indicator; and a transmission section configured to transmit at least one of a signal and a channel corresponding to an object set specified by a second index associated with the indicator, using the transmission power; wherein the transmission section is configured to transmit a power headroom report, PHR, including information about a power headroom, PH, corresponding to the indicator, and wherein the object set comprises at least one value representing one or more objects which are at least one of a beam, a layer, a layer group, a panel, a beam group, a beam pair link, a numerology, a frequency, a code, and a sequence. a receiving section configured to receive an indicator related to power control; a control section configured to determine a transmission power in accordance with a transmission power parameter set determined from a first index associated with the indicator; and a transmission section configured to transmit at least one of a signal and a channel corresponding to an object set specified by a second index associated with the indicator, using the transmission power; wherein the transmission section is configured to transmit a power headroom report, PHR, including information about a power headroom, PH, corresponding to the indicator, and wherein the object set comprises at least one value representing one or more objects which are at least one of a beam, a layer, a layer group, a panel, a beam group, a beam pair link, a numerology, a frequency, a code, and a sequence.
A process for preparing a dried coffee powder, the process comprising the steps of: (i) extracting coffee solids from roasted and ground coffee beans using water at a temperature of between 0 and 110°C, to obtain a first coffee extract; (ii) filtering the first coffee extract using a selectively-permeable membrane having a molecular weight cut-off of 0.1-100 kDa to reduce the concentration of low molecular weight components, wherein low molecular weight coffee solids that pass through the filter form a permeate and high molecular weight coffee solids that are retained by the filter form a retentate; and (iii) drying the retentate to form a dried coffee powder; wherein the dried coffee powder has a concentration ratio of components having a molecular weight greater than 1 kDa to components having a molecular weight less than 1 kDa of at least 5. (i) extracting coffee solids from roasted and ground coffee beans using water at a temperature of between 0 and 110°C, to obtain a first coffee extract; (ii) filtering the first coffee extract using a selectively-permeable membrane having a molecular weight cut-off of 0.1-100 kDa to reduce the concentration of low molecular weight components, wherein low molecular weight coffee solids that pass through the filter form a permeate and high molecular weight coffee solids that are retained by the filter form a retentate; and (iii) drying the retentate to form a dried coffee powder;