mhurhangee/patent-ind-claim-en huggingface dataset:
An ultra-dispersion mixer comprising: a chamber configured to accommodate a mixed material therein; a blade drum formed as a cylinder having a space formed therein and disposed to rotate at an upper portion of an internal side of the chamber ; a low-speed blade having one end connected to a lower surface of the blade drum and a remaining end that extends along an internal wall of the chamber and rotates together with the blade drum along the internal wall of the chamber ; and at least one high-speed blade having one end connected to the blade drum and a remaining end that extends towards an internal side of the chamber and rotating on the blade drum , wherein the high-speed blade has a plurality of blade parts having different stirring characteristics and arranged on one shaft, characterized in that the blade parts include: a saw blade that has a sawtooth protruding outside a circular plate and is configured to rotate, and a star blade that has a plurality of rods vertically extending outside a circular plate and is configured to rotate. a chamber configured to accommodate a mixed material therein; a blade drum formed as a cylinder having a space formed therein and disposed to rotate at an upper portion of an internal side of the chamber ; a low-speed blade having one end connected to a lower surface of the blade drum and a remaining end that extends along an internal wall of the chamber and rotates together with the blade drum along the internal wall of the chamber ; and at least one high-speed blade having one end connected to the blade drum and a remaining end that extends towards an internal side of the chamber and rotating on the blade drum , wherein the high-speed blade has a plurality of blade parts having different stirring characteristics and arranged on one shaft, characterized in that the blade parts include: a saw blade that has a sawtooth protruding outside a circular plate and is configured to rotate, and a star blade that has a plurality of rods vertically extending outside a circular plate and is configured to rotate. a saw blade that has a sawtooth protruding outside a circular plate and is configured to rotate, and a star blade that has a plurality of rods vertically extending outside a circular plate and is configured to rotate.
A use of at least two devices for coupling building elements together, the devices comprising an extending element having a first leg in a first direction and a second leg oriented at an angle of substantially 90° with respect to the first leg wherein at least one of the two legs comprises a receiver adapted to receive a leg of a similar device, in an assembly formed from building elements, characterized in that a first leg of a second device is received in the receiver of the second leg of the first device and which assembly comprises at least three rows of building elements, wherein a first leg of a first device is placed in a joint between a first and a second building element and the second leg thereof extends to the height of a joint between the second and a third building element, and wherein the first leg of a second device extends into the joint between the second and third building element and the second leg of the second device extends to the height of a joint between the third and a fourth building element.
A portable electronic device comprising: an enclosure having an enclosure wall that forms an interior chamber ; a speaker module positioned within the interior chamber, the speaker module having a speaker and a module wall forming a back volume chamber of the speaker, wherein the back volume chamber comprises an acoustic vent port formed through the module wall to acoustically couple the back volume chamber to the interior chamber; a valve for regulating the acoustic coupling of the back volume chamber to the interior chamber based on a pressure input to a portion of the enclosure wall; and a pressure sensor for detecting the pressure input to the portion of the enclosure, and the valve is operable to transition between an open configuration and a closed configuration based on the detecting of the pressure input. an enclosure having an enclosure wall that forms an interior chamber ; a speaker module positioned within the interior chamber, the speaker module having a speaker and a module wall forming a back volume chamber of the speaker, wherein the back volume chamber comprises an acoustic vent port formed through the module wall to acoustically couple the back volume chamber to the interior chamber; a valve for regulating the acoustic coupling of the back volume chamber to the interior chamber based on a pressure input to a portion of the enclosure wall; and a pressure sensor for detecting the pressure input to the portion of the enclosure, and the valve is operable to transition between an open configuration and a closed configuration based on the detecting of the pressure input.
A process of manufacturing of segments for carbon thrust bearing comprising following steps: a) cutting of stainless steel round bars/strips/logs of grade selected from 420, AISI 420A, AISI 420B, AISI 420C, AISI 410 to form billets; b) heating of steel billets obtained in step (a) at 900°C-1000°C in induction furnace; c) carrying out a hot forging process on steel billets obtained in step (b) using forging dies for forming segments of desired shape; d) carrying out a stress relieving process on segment obtained in step (c) at temperature of 545°C-555°C to reduce internal residual stress and to prevent formation of excessive thermal stress; e) carrying out a hardening process after stress relieving process on segment obtained in step (d) at temperature of 1040°C to increase the hardness and toughness and to acquire uniform grain structure of the segment; f) carrying out a tempering process after hardening process on segment obtained in step (e) at temperature of 245°C-255°C to reduce brittleness and excess hardness; g) implementing a grinding process after tempering process on resultant segment obtained in step (f) to acquire finished surface of the segment; h) Implementing a lapping process and a polishing process successively on segment obtained in step (g) to obtain optimum degree of surface finishing and flatness for achieving mirror like surface of segment. a) cutting of stainless steel round bars/strips/logs of grade selected from 420, AISI 420A, AISI 420B, AISI 420C, AISI 410 to form billets; b) heating of steel billets obtained in step (a) at 900°C-1000°C in induction furnace; c) carrying out a hot forging process on steel billets obtained in step (b) using forging dies for forming segments of desired shape; d) carrying out a stress relieving process on segment obtained in step (c) at temperature of 545°C-555°C to reduce internal residual stress and to prevent formation of excessive thermal stress; e) carrying out a hardening process after stress relieving process on segment obtained in step (d) at temperature of 1040°C to increase the hardness and toughness and to acquire uniform grain structure of the segment; f) carrying out a tempering process after hardening process on segment obtained in step (e) at temperature of 245°C-255°C to reduce brittleness and excess hardness; g) implementing a grinding process after tempering process on resultant segment obtained in step (f) to acquire finished surface of the segment; h) Implementing a lapping process and a polishing process successively on segment obtained in step (g) to obtain optimum degree of surface finishing and flatness for achieving mirror like surface of segment.
A computer-implemented method, the method comprising: detecting a plurality of computing devices (104-112, 202, 204) configured as a distributed ambient computing system within a defined environment; receiving a request to execute a computing task; obtaining , from the distributed ambient computing system, data representing a device context for at least two devices of the plurality of computing devices, wherein the at least two devices are selected based on a determined physical location of each of the at least two of the plurality of devices; generating a combined context corresponding to the distributed ambient computing system, the combined context representing a combination of the device context for the at least two devices, the combined context being a context of the defined environment and being configured to enable the plurality of devices to trigger a private mode according to preconfigured permissions associated with the distributed ambient computing system; and triggering execution of the computing task, the execution being based on the combined context. detecting a plurality of computing devices (104-112, 202, 204) configured as a distributed ambient computing system within a defined environment; receiving a request to execute a computing task; obtaining , from the distributed ambient computing system, data representing a device context for at least two devices of the plurality of computing devices, wherein the at least two devices are selected based on a determined physical location of each of the at least two of the plurality of devices; generating a combined context corresponding to the distributed ambient computing system, the combined context representing a combination of the device context for the at least two devices, the combined context being a context of the defined environment and being configured to enable the plurality of devices to trigger a private mode according to preconfigured permissions associated with the distributed ambient computing system; and triggering execution of the computing task, the execution being based on the combined context.
A reference signal configuration method, wherein the method comprises: obtaining (S701), by a base station, a first time-domain location of a reference signal of a first cell, and mapping the reference signal of the first cell to one or more resource elements based on the first time-domain location, wherein there is a time domain offset between the first time-domain location and a second time-domain location of a reference signal of a second cell, the first cell is a cell in which the base station is located, and a service area of the second cell is different from that of the first cell; and sending (S702), by the base station, the reference signal of the first cell to a user equipment, UE; wherein the time domain offset between the first time-domain location of the reference signal of the first cell and the second time-domain location of the reference signal of the second cell is sent to the UE by the base station or is preconfigured on the UE; characterised in that the first time-domain location is determined based on a degree of interference between the first cell and the second cell; and wherein the first time-domain location is obtained by the base station by using a location of a first symbol, and the first symbol is a first symbol or a last symbol used for transmitting the reference signal of the first cell. obtaining (S701), by a base station, a first time-domain location of a reference signal of a first cell, and mapping the reference signal of the first cell to one or more resource elements based on the first time-domain location, wherein there is a time domain offset between the first time-domain location and a second time-domain location of a reference signal of a second cell, the first cell is a cell in which the base station is located, and a service area of the second cell is different from that of the first cell; and sending (S702), by the base station, the reference signal of the first cell to a user equipment, UE; wherein the time domain offset between the first time-domain location of the reference signal of the first cell and the second time-domain location of the reference signal of the second cell is sent to the UE by the base station or is preconfigured on the UE; characterised in that the first time-domain location is determined based on a degree of interference between the first cell and the second cell; and wherein the first time-domain location is obtained by the base station by using a location of a first symbol, and the first symbol is a first symbol or a last symbol used for transmitting the reference signal of the first cell.
An electric pump comprising: a pump main body that accommodates a pump unit and a motor ; and a plate-shaped elastic member that is wound around an outer circumference of the pump main body such that a longitudinal direction of the elastic member extends along a circumferential direction of the pump main body , characterized in that the elastic member is provided with a pair of first locking portions on both end portions in the longitudinal direction, and the outer circumference of the pump main body is provided with a pair of first locking target portions that are locked to the first locking portions , the first locking portions are holes that penetrate through the elastic member in a plate thickness direction thereof, and the first locking target portions are hooks that are upright on the outer circumference of the pump main body and are inserted into the holes, each of the holes is formed by communicating a first hole positioned on a side closer to the pump main body in the plate thickness direction and a second hole positioned on a side away from the pump main body , and when viewed from the outer side of the pump main body in the radial direction, the second hole is formed to be wider than the first hole toward an end portion side of the elastic member in the longitudinal direction, and the top portion of each of the hooks is positioned in the second hole . a pump main body that accommodates a pump unit and a motor ; and a plate-shaped elastic member that is wound around an outer circumference of the pump main body such that a longitudinal direction of the elastic member extends along a circumferential direction of the pump main body , characterized in that the elastic member is provided with a pair of first locking portions on both end portions in the longitudinal direction, and the outer circumference of the pump main body is provided with a pair of first locking target portions that are locked to the first locking portions , the first locking portions are holes that penetrate through the elastic member in a plate thickness direction thereof, and the first locking target portions are hooks that are upright on the outer circumference of the pump main body and are inserted into the holes, each of the holes is formed by communicating a first hole positioned on a side closer to the pump main body in the plate thickness direction and a second hole positioned on a side away from the pump main body , and when viewed from the outer side of the pump main body in the radial direction, the second hole is formed to be wider than the first hole toward an end portion side of the elastic member in the longitudinal direction, and the top portion of each of the hooks is positioned in the second hole .
A polyethylene composition comprising a base resin which comprises (A) a first ethylene homo- or copolymer fraction, and (B) a second ethylene-hexene-1 copolymer fraction, wherein fraction (A) has a lower molecular weight than fraction (B) and wherein fraction (B) is present in an amount of from 51.0 to 58.5 wt. based on the total weight of the base resin, wherein fraction (B) of the base resin has a content of units derived from hexene-1 from 0.85 to 1.45 mol%, wherein the base resin has a number average molecular weight Mn of 8,500 g/mol or higher, and wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.30 g/10min. (A) a first ethylene homo- or copolymer fraction, and (B) a second ethylene-hexene-1 copolymer fraction, wherein fraction (A) has a lower molecular weight than fraction (B) and wherein fraction (B) is present in an amount of from 51.0 to 58.5 wt. based on the total weight of the base resin, wherein fraction (B) of the base resin has a content of units derived from hexene-1 from 0.85 to 1.45 mol%, wherein the base resin has a number average molecular weight Mn of 8,500 g/mol or higher, and wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.30 g/10min.
A dispersion comprising core-shell nano-particles, said core-shell nano-particles comprising an organic core and an inorganic shell; wherein the inorganic shell is obtained from at least one inorganic oxide precursor; wherein the organic core comprises solvated synthetic polyampholyte aggregates comprising organic polymer and solvent including water and organic solvent; the synthetic polyampholyte is a cationic copolymer obtained from • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3), and wherein the core-shell nano-particles have an average particle size of 10 to 300 nm as measured by Dynamic Light Scattering, said dispersion comprising core-shell nano-particles in an aqueous medium comprising an organic solvent that is miscible with or at least can be dissolved in water and having a pH in the range 2-6. the organic core comprises solvated synthetic polyampholyte aggregates comprising organic polymer and solvent including water and organic solvent; the synthetic polyampholyte is a cationic copolymer obtained from • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3), and wherein • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3), and wherein the core-shell nano-particles have an average particle size of 10 to 300 nm as measured by Dynamic Light Scattering, said dispersion comprising core-shell nano-particles in an aqueous medium comprising an organic solvent that is miscible with or at least can be dissolved in water and having a pH in the range 2-6.
A method for the plating of a non-metal substrate (S) allowing a chromiumfree plated part to be obtained, wherein: • a non-metal substrate (S) is provided having a surface ; • a bonding layer (C1) is formed on said surface ; • at least one reinforcement layer (C2) comprising at least one copper layer, is formed on the bonding layer (C1); • one nickel layer (C3) is formed on the reinforcement layer (C2); • at least one varnish layer (C4) is formed above the reinforcement layer (C2), on the nickel layer (C3); • a drying step (S112) is also performed by a device emitting ultraviolet radiation, to dry the varnish layer (C4) at a temperature lower than 60°C, at which the varnish layer is exposed to ultraviolet radiation wherein the varnish layer is transparent or coloured, so as to get a plated part having a metal appearance. • a non-metal substrate (S) is provided having a surface ; • a bonding layer (C1) is formed on said surface ; • at least one reinforcement layer (C2) comprising at least one copper layer, is formed on the bonding layer (C1); • one nickel layer (C3) is formed on the reinforcement layer (C2); • at least one varnish layer (C4) is formed above the reinforcement layer (C2), on the nickel layer (C3); • a drying step (S112) is also performed by a device emitting ultraviolet radiation, to dry the varnish layer (C4) at a temperature lower than 60°C, at which the varnish layer is exposed to ultraviolet radiation
A printable recording media having a weight that is below 75 gsm, comprising: a. a blend of hardwood fibers and softwood fibers, wherein the total fiber content is at least 80 wt % of the total weight of the media; b. and a polymeric-modified pigment carbon black in an amount representing from 0.02 wt % to 1 wt % of the total weight of the media, wherein the polymeric-modified pigment carbon black is formed by combining a carbon black pigment with polymers containing carboxylic groups selected from the group consisting of styrene-acrylic polymers, polyacrylic acid polymers, polymethacrylic acid polymers and styrene maleic anhydride polymers. a. a blend of hardwood fibers and softwood fibers, wherein the total fiber content is at least 80 wt % of the total weight of the media; b. and a polymeric-modified pigment carbon black in an amount representing from 0.02 wt % to 1 wt % of the total weight of the media,
A swash plate pump for direct transfer of viscous media from an input to an output port with a split two-part housing , wherein the split two-part housing comprises a pump housing split from a pump head , wherein a drive shaft is turning an eccentrically split ball , on which a swash plate having an outer rim shaped correspondingly to a spherical inner shape of the pump chamber is arranged, thus resulting in a wagging movement of the swash plate inside a pump chamber , wherein the wagging movement of the swash plate is limited by a sword which holds the swash plate in a recess of the swash plate, so that the drive shaft moves the swash plate about a swash point so as to describe a double conical surface, the swash point being at the same time the center point of the surface of the outer rim of the swash plate and the spherical inner surface of the pump chamber and of the split ball , characterized in that the parting plane of the split housing is bevelled by an angle in a range of 5° to 45° relative to an axis perpendicular to the drive shaft , said parting plane running through the center of the ball and wherein the input and output ports are mounted at the pump housing .
A method for manufacturing an annular formed body comprising a melting and casting step of producing an alloy piece by melting and casting, a forging step of forging the alloy piece to provide a forged body having a disc shape, and a ring rolling step of ring-rolling an annular intermediate body prepared by forming a through-hole in the forged body to provide an annular formed body, wherein the alloy piece is made of a Ni-based alloy, a Co-based alloy or an Fe-based alloy, characterized in that the forging step consists of at least two hot forging steps, each of the hot forging steps being carried out under the conditions that a strain rate is at most 0.5 s -1 , an absolute value εθ1 of strain to the forged body in its circumferential direction is at least 0.3, an absolute value εh of strain to the forged body in its height direction is at least 0.3, and a ratio εh/εθ1 between the absolute values of strain is within a range from 0.4 to 2.5, wherein the strain rate is defined by the following expression: Strain rate s − 1 = 2 / 3 ε h 2 + ε θ 2 + − ε h − ε θ 2 forging time s . wherein the alloy piece is made of a Ni-based alloy, a Co-based alloy or an Fe-based alloy, characterized in that the forging step consists of at least two hot forging steps, each of the hot forging steps being carried out under the conditions that a strain rate is at most 0.5 s -1 , an absolute value εθ1 of strain to the forged body in its circumferential direction is at least 0.3, an absolute value εh of strain to the forged body in its height direction is at least 0.3, and a ratio εh/εθ1 between the absolute values of strain is within a range from 0.4 to 2.5, wherein the strain rate is defined by the following expression: Strain rate s − 1 = 2 / 3 ε h 2 + ε θ 2 + − ε h − ε θ 2 forging time s .