mhurhangee/ep-ind-claims huggingface dataset:
A paging method, comprising: receiving, by a terminal device, a paging message sent by an access network device based on at least one network slice used by the terminal device, comprising: determining, by the terminal device, at least one paging group to which the terminal device belongs and which corresponds to the at least one network slice based on the at least one network slice used by the terminal device and corresponding relationship between multiple network slices and multiple paging groups; receiving, by the terminal device, indication information sent by the access network device, the indication information indicating a target paging group of at least one paging group; and receiving, by the terminal device, on the basis of the paging group determination step and on the basis of the target paging group received information, the paging message sent to a terminal device of the target paging group by the access network device. determining, by the terminal device, at least one paging group to which the terminal device belongs and which corresponds to the at least one network slice based on the at least one network slice used by the terminal device and corresponding relationship between multiple network slices and multiple paging groups; receiving, by the terminal device, indication information sent by the access network device, the indication information indicating a target paging group of at least one paging group; and receiving, by the terminal device, on the basis of the paging group determination step and on the basis of the target paging group received information, the paging message sent to a terminal device of the target paging group by the access network device.
A rubber composition comprising at least: - a diene elastomer; - between 70 and 150 phr of a reinforcing filler; - between 20 and 160 phr of a plasticizer comprising from 20 to 55 phr of a vegetable oil; and - between 2 and 40 phr of microparticles of a water soluble sulfate of an alkali metal or an alkaline earth metal, wherein the plasticizer further comprises a compound selected from the group consisting of hydrocarbon resins, liquid plasticizers other than the vegetable oil and the mixtures thereof; wherein the reinforcing filler comprises greater than 70 phr of a reinforcing inorganic filler. - a diene elastomer; - between 70 and 150 phr of a reinforcing filler; - between 20 and 160 phr of a plasticizer comprising from 20 to 55 phr of a vegetable oil; and - between 2 and 40 phr of microparticles of a water soluble sulfate of an alkali metal or an alkaline earth metal,
A three-dimensional object forming device that forms a three-dimensional object by an additive manufacturing method, the three-dimensional object forming device comprising: a head unit, including a plurality of nozzle rows that discharge ink droplets in an inkjet scheme; and a main scanning drive unit that causes the head unit to perform a main scanning operation of discharging ink droplets while moving in a main scanning direction that is set in advance, wherein each of the plurality of nozzle rows is a row along which a plurality of nozzles are aligned in a nozzle row direction that intersects the main scanning direction, the plurality of nozzle rows are arranged along the main scanning direction so that at least some of their positions in a perpendicular direction that intersects perpendicularly with the main scanning direction overlap each other, and in the perpendicular direction, respective positions of the nozzles in each nozzle row differ from respective positions of the nozzles in other nozzle rows, characterized in that N pieces of the nozzle rows are included as the plurality of nozzle rows, wherein N is an integer of 2 or more in each of the nozzle rows, the plurality of nozzles are arranged so that intervals in the perpendicular direction become constant intervals "p", and the plurality of nozzle rows are arranged along the main scanning direction so that an offset size of positions in the perpendicular direction between the adjacent nozzle rows becomes "p/N" for the position of the nozzle at an end in the arrangement of the nozzles in the nozzle row. a head unit, including a plurality of nozzle rows that discharge ink droplets in an inkjet scheme; and a main scanning drive unit that causes the head unit to perform a main scanning operation of discharging ink droplets while moving in a main scanning direction that is set in advance, wherein each of the plurality of nozzle rows is a row along which a plurality of nozzles are aligned in a nozzle row direction that intersects the main scanning direction, the plurality of nozzle rows are arranged along the main scanning direction so that at least some of their positions in a perpendicular direction that intersects perpendicularly with the main scanning direction overlap each other, and in the perpendicular direction, respective positions of the nozzles in each nozzle row differ from respective positions of the nozzles in other nozzle rows, characterized in that N pieces of the nozzle rows are included as the plurality of nozzle rows, wherein N is an integer of 2 or more in each of the nozzle rows, the plurality of nozzles are arranged so that intervals in the perpendicular direction become constant intervals "p", and the plurality of nozzle rows are arranged along the main scanning direction so that an offset size of positions in the perpendicular direction between the adjacent nozzle rows becomes "p/N" for the position of the nozzle at an end in the arrangement of the nozzles in the nozzle row.
Apparatus for estimating an inter-channel time difference between a first channel signal and a second channel signal, wherein the first channel signal is a first channel audio signal, and wherein the second channel signal is a second channel audio signal, the apparatus comprising: a signal analyzer for estimating a signal characteristic of the first channel signal or the second channel signal or both signals or a signal derived from the first channel signal or the second channel signal; a calculator for calculating a cross-correlation spectrum for a time block from the first channel signal in the time block and the second channel signal in the time block; a weighter for weighting a smoothed or non-smoothed cross-correlation spectrum to obtain a weighted cross correlation spectrum using a first weighting procedure or using a second weighting procedure depending on a signal characteristic estimated by the signal analyzer, wherein the first weighting procedure is different from the second weighting procedure; and a processor for processing the weighted cross-correlation spectrum to obtain the inter-channel time difference. a signal analyzer for estimating a signal characteristic of the first channel signal or the second channel signal or both signals or a signal derived from the first channel signal or the second channel signal; a calculator for calculating a cross-correlation spectrum for a time block from the first channel signal in the time block and the second channel signal in the time block; a weighter for weighting a smoothed or non-smoothed cross-correlation spectrum to obtain a weighted cross correlation spectrum using a first weighting procedure or using a second weighting procedure depending on a signal characteristic estimated by the signal analyzer, wherein the first weighting procedure is different from the second weighting procedure; and a processor for processing the weighted cross-correlation spectrum to obtain the inter-channel time difference.
Cosmetic method for caring for and/or making up the skin intended to provide it with a luminous effect and coverage, comprising the application to the skin of a cosmetic composition in the form of an emulsion comprising, in a physiologically acceptable medium: (i) at least one dispersion of bismuth oxychloride (CI 77163) in 2-ethylhexyl hydroxystearate, and (ii) at least one oil chosen from phenyl silicone oils. (i) at least one dispersion of bismuth oxychloride (CI 77163) in 2-ethylhexyl hydroxystearate, and (ii) at least one oil chosen from phenyl silicone oils.
A central insertion connector, comprising a main body unit, and a corrosion resistant layer coated on and covering the main body unit, wherein the main body unit comprises a penetrating flow channel extending therethrough; the main body unit at least comprises a threaded connection section and an insertion section that is arranged opposite to the threaded connection section; wherein surfaces of the flow channel, the threaded connection section, and the insertion section of the main body unit are coated with and covered by the corrosion resistant layer, wherein the threaded connection section is provided with a circumferential groove and the corrosion resistant layer is allowed to penetrate into the circumferential groove of the threaded connection section to form a first retention portion and wherein the insertion section is provided with a trough and the corrosion resistant layer penetrates into the trough of the insertion section to form a second retention portion; characterized in that a portion of the corrosion resistant layer coated on an outer circumference of the threaded connection section is formed with a thread.
A method for preparing an R-Fe-B based sintered magnet, the method comprising: 1) preparing a R 1 -Fe-B-M alloy, pulverizing the R 1 -Fe-B-M alloy to yield a R 1 -Fe-B-M alloy powder, adding a heavy rare earth powder of R 2 and subsequently adding a lubricant to the R 1 -Fe-B-M alloy powder and uniformly stirring to form a mixture, wherein the R 1 -Fe-B-M alloy comprises between 27 wt. % and 33 wt. % (not including 27 wt. % and 33 wt. %) of R 1 being selected from the group consisting of Nd, Pr, Tb, Dy, La, Gd, Ho, and a mixture thereof; between 0.8 wt. % and 1.3 wt. % of B; and less than 5 wt. % of M being selected from the group consisting Ti, V, Cr, Mn, Co, Ga, Cu, Si, Al, Zr, Nb, W, Mo, and a mixture thereof; R 2 is at least one from Tb, Dy, and Ho; R 2 accounts for between 0.1 wt. % and 3 wt. % in total weight of the R 1 -Fe-B-M alloy powder; 2) pressing the mixture obtained in step 1) to form a compact, and sintering the compact in a pressure sintering device in vacuum or in an inactive gas atmosphere; the sintering of the compact comprising: degassing the compact in the absence of pressure at a temperature of less than 970°C for more than 45 min, and sintering the compact by applying a pressure of between 10 and 150 Megapascal at a temperature of between 800 and 970°C to obtain a magnet having a magnetic density of larger than 7.2 g/cm 3; and 3) aging the magnet obtained in step 2) at a temperature between 400 and 600°C for between 60 and 480 min in the absence of pressure. 1) preparing a R 1 -Fe-B-M alloy, pulverizing the R 1 -Fe-B-M alloy to yield a R 1 -Fe-B-M alloy powder, adding a heavy rare earth powder of R 2 and subsequently adding a lubricant to the R 1 -Fe-B-M alloy powder and uniformly stirring to form a mixture, wherein the R 1 -Fe-B-M alloy comprises between 27 wt. % and 33 wt. % (not including 27 wt. % and 33 wt. %) of R 1 being selected from the group consisting of Nd, Pr, Tb, Dy, La, Gd, Ho, and a mixture thereof; between 0.8 wt. % and 1.3 wt. % of B; and less than 5 wt. % of M being selected from the group consisting Ti, V, Cr, Mn, Co, Ga, Cu, Si, Al, Zr, Nb, W, Mo, and a mixture thereof; R 2 is at least one from Tb, Dy, and Ho; R 2 accounts for between 0.1 wt. % and 3 wt. % in total weight of the R 1 -Fe-B-M alloy powder; 2) pressing the mixture obtained in step 1) to form a compact, and sintering the compact in a pressure sintering device in vacuum or in an inactive gas atmosphere; the sintering of the compact comprising: degassing the compact in the absence of pressure at a temperature of less than 970°C for more than 45 min, and sintering the compact by applying a pressure of between 10 and 150 Megapascal at a temperature of between 800 and 970°C to obtain a magnet having a magnetic density of larger than 7.2 g/cm 3; and 3) aging the magnet obtained in step 2) at a temperature between 400 and 600°C for between 60 and 480 min in the absence of pressure.
A shoe press apparatus of a paper machine for pressing wet paper through a nip, comprising: a counter roll; and a shoe module disposed adjacent to said counter roll, including a cylindrical blanket, and a press mechanism (7;7") disposed inside said cylindrical blanket, extending in a width direction of said cylindrical blanket, and adapted to press individually a plurality of pressed portions formed on said cylindrical blanket along a traveling direction of the wet paper, toward an outer-surface of said counter roll so that the wet paper is pressed in the nip between said cylindrical blanket and said counter roll; wherein said press mechanism (7;7") is adapted to apply an oil film to said cylindrical blanket making use of a hydrodynamic pressure at the pressed portion disposed on the upstream side in the traveling direction of the wet paper and is adapted to apply an oil film to said cylindrical blanket making use of a hydrostatic pressure at the pressed portion disposed on the downstream side in the traveling direction of the wet paper. a counter roll; and a shoe module disposed adjacent to said counter roll, including a cylindrical blanket, and a press mechanism (7;7") disposed inside said cylindrical blanket, extending in a width direction of said cylindrical blanket, and adapted to press individually a plurality of pressed portions formed on said cylindrical blanket along a traveling direction of the wet paper, toward an outer-surface of said counter roll so that the wet paper is pressed in the nip between said cylindrical blanket and said counter roll; wherein said press mechanism (7;7") is adapted to apply an oil film to said cylindrical blanket making use of a hydrodynamic pressure at the pressed portion disposed on the upstream side in the traveling direction of the wet paper and is adapted to apply an oil film to said cylindrical blanket making use of a hydrostatic pressure at the pressed portion disposed on the downstream side in the traveling direction of the wet paper.
An inhaler for dispensing medicament, the inhaler comprising a gas container for containing compressed gas; means (3,4) for releasing compressed gas from the gas container to aerosolise the medicament; sensing means operable to detect a change in the volume and/or pressure of the gas in the gas container; feed means for feeding a dose of aerosolised medicament to the user; and control means; wherein the inhaler is operable, in use, to aerosolise medicament using the compressed gas, and harness the user's inhalation to deliver the aerosolised medicament to the user; characterised in that said control means comprises a first valve for controlling air entering the user's mouth via an air channel (12C-G), said control means opening said first valve after the sensing means has detected release of compressed gas from the gas container to aerosolise the medicament for a pre-determined time period. a gas container for containing compressed gas; means (3,4) for releasing compressed gas from the gas container to aerosolise the medicament; sensing means operable to detect a change in the volume and/or pressure of the gas in the gas container; feed means for feeding a dose of aerosolised medicament to the user; and control means; wherein the inhaler is operable, in use, to aerosolise medicament using the compressed gas, and harness the user's inhalation to deliver the aerosolised medicament to the user; characterised in that said control means comprises a first valve for controlling air entering the user's mouth via an air channel (12C-G), said control means opening said first valve after the sensing means has detected release of compressed gas from the gas container to aerosolise the medicament for a pre-determined time period.
A locating means suitable for determining the microorganism concentration of a fluid to be analysed by means of a Petri dish, after incubation of said Petri dish, said Petri dish comprising a lid and a base, the locating means being suitable to be placed on the lid of the Petri dish or integrated in the lid of the Petri dish or integrated within a computer software, said Petri dish comprising a culture medium on which a seeding device able to rotate relative to the Petri dish is suitable so as to distribute the fluid, said seeding device comprising at least one point of contact, associated with a contact zone, with said culture medium, said locating means comprising: - a circle C1 corresponding to the circumference of the Petri dish, the circle C1 comprising a centre O and a radius RC1 corresponding to the radius of the Petri dish; - a seeding line LR of length R representing the zone for inoculating the fluid on the culture medium and corresponding to a portion of the radius RC1 of the Petri dish; - at least one locating zone Zn for locating the presence of microorganisms on the culture medium, said locating zone Zn being delimited by the seeding line LR and a zone boundary line LZ delimiting an identical distance d travelled on the surface of the culture medium by each point of contact of the seeding device starting from the seeding line LR. - a circle C1 corresponding to the circumference of the Petri dish, the circle C1 comprising a centre O and a radius RC1 corresponding to the radius of the Petri dish; - a seeding line LR of length R representing the zone for inoculating the fluid on the culture medium and corresponding to a portion of the radius RC1 of the Petri dish; - at least one locating zone Zn for locating the presence of microorganisms on the culture medium, said locating zone Zn being delimited by the seeding line LR and a zone boundary line LZ delimiting an identical distance d travelled on the surface of the culture medium by each point of contact of the seeding device starting from the seeding line LR.
Charcoal grill comprising a charcoal rack arranged in a grill housing and a lifting device for the charcoal rack which on a first side of the charcoal rack has a first actuating bar pivotably mounted on the charcoal rack and pivotably mounted relative to a first bracket configured in the grill housing, and a first guide bar oriented parallel to the first actuating bar and pivotably mounted on the charcoal rack and pivotably mounted on the first bracket as well as on a second side of the charcoal rack a second actuating bar pivotably mounted on the charcoal rack and pivotably mounted relative to a second bracket configured in the grill housing and a second guide bar oriented parallel to the second actuating bar and pivotably mounted on the charcoal rack and pivotably mounted on the second bracket, wherein the first actuating bar and the second actuating bar are connected together fixedly in terms of rotation at their ends facing the brackets (5, 8) by an actuating shaft, so that the charcoal rack is lifted or lowered by rotating the actuating shaft, characterised in that the guide bars (7, 10) and the brackets (5, 8) are configured such that for attaching the charcoal rack the actuating shaft is initially introduced into the first bracket and subsequently by axial displacement is inserted with one end into the second bracket, wherein at the same time the first guide bar is inserted into the first bracket and the second guide bar is inserted into the second bracket.
Calibration set for a welding device, wherein the welding device has an unmovable heat tape carrier and a movable heat tape carrier, suitable for performing a calibration method for calibrating the welding temperature of the heat tape carrier and / or the welding temperature of one or more heating elements on or in the heat tape carrier or the heat tape carriers (13, 14) and of the contact pressure (p) of the movable heat tape carrier, wherein the calibration set comprises a temperature sensor as well as an electronic evaluation unit connectable to the temperature sensor, wherein the temperature sensor is formed as a band and comprises a metallic material, wherein the length of the band substantially corresponds to the length of the unmovable heat tape carrier, so that the temperature sensor can be substantially congruently arranged on the heated surface of the heat tape carrier (13, 14) of the welding device, characterized in that the calibration set comprises a temperature sensor holding device, and in that the temperature sensor on and / or in the temperature sensor holding device can be arranged spirally or wavelike, and in that the calibration set comprises at least one weight carrier that is connectable to a contact pressure sensor of the welding device, in that two weight carriers are provided, in that the weight carriers are formed approximately mushroom-shaped, plate-shaped, stand-shaped or table-shaped and have an elongate bearing element as well as a weight bearing surface arranged at the end side of the bearing element, and in that the weight bearing surface is magnetized.
Device for electrical stimulation of neural and/or muscular tissue, the device comprising a cochlear implant being equipped with a power source, a speech processor (1.1.2), a microphone (1.1.1) adapted to deliver sound signals to said speech processor (1.1.2), a current stimulator (1.2.1), at least an array of electrodes (1.2.2) attached to the stimulator (1.2.1), and at least a signal sensor other than said microphone (1.1.1), wherein the device further comprises a signal transformation unit, said signal sensors being adapted to capture relevant input information and to deliver a corresponding input signal (3.2.1) to the transformation unit, the latter allowing to transform said input signal (3.2.1) received from the signal sensors into a modulated electrical output signal (3.10.1) adapted to be treated by the speech processor (1.1.2) of the cochlear implant, characterised by the fact that the transformation unit comprises a waveform generator (3.1) adapted to generate an acoustic carrier waveform (3.1.1) of a given frequency, at least an input (3.2) allowing each for introduction of an input signal (3.2.1) from a corresponding signal sensor connected to said input (3.2), a first amplifier (3.3) allowing to amplify the signal of the acoustic carrier waveform (3.1.1), a third amplifier (3.8) allowing to amplify the input signal (3.2.1), and a signal modulation component (3.9) allowing to modulate in amplitude the acoustic carrier waveform (3.1.1) generated by the waveform generator (3.1) by the input signal (3.2.1) as well as an output (3.10) allowing to deliver an amplitude modulated output signal (3.10.1) to the speech processor (1.1.2) of the cochlear implant.