mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine comprising: a tub which accommodates washing water; a drum which is disposed inside the tub, accommodates cloth, and is rotatable; a transmission coil which is disposed in the tub and supplies power wirelessly; a reception coil which is disposed in the drum and receives the power transmitted from the transmission coil; and characterized by : a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts protruded from the rotating plate. a tub which accommodates washing water; a drum which is disposed inside the tub, accommodates cloth, and is rotatable; a transmission coil which is disposed in the tub and supplies power wirelessly; a reception coil which is disposed in the drum and receives the power transmitted from the transmission coil; and characterized by : a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts protruded from the rotating plate. a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts protruded from the rotating plate. a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts protruded from the rotating plate.
A method for producing a zinc alloy with excellent crack resistance, containing Al at an amount of 3.9-4.1 wt%, Mg at an amount of 0.005-0.018 wt%, optionally Cu at an amount of 0.2-1.0 wt%, the remainder of the alloy being Zn and unavoidable impurities, comprising the following steps: weighing zinc ingots, aluminum ingots, magnesium ingots and/or selectively added electrolytic copper according to the composition of the zinc alloy; adding the aluminum ingots, and/or selectively added electrolytic copper, and 1/3 of the zinc ingots at a bottom of a furnace, stirring evenly after all materials are melted, adding the remaining zinc ingots, and using a bell to press the magnesium ingot to the bottom of the furnace at about 540°C after the materials are all melted, after the magnesium ingot is melted, adding selectively a refiner, adding a purifying agent for purifying after the refiner is fully reacted, then removing residue and gas, allowing a product to stand after a composition test is qualified, and casting boat-shaped ingots after slagging and taking out of the furnace, wherein the refiner is a salt refiner containing a titanium salt or a boron salt or a composite of both, and is not an intermediate alloy containing RE or Zr or B. Al at an amount of 3.9-4.1 wt%, Mg at an amount of 0.005-0.018 wt%, optionally Cu at an amount of 0.2-1.0 wt%, the remainder of the alloy being Zn and unavoidable impurities, comprising the following steps: weighing zinc ingots, aluminum ingots, magnesium ingots and/or selectively added electrolytic copper according to the composition of the zinc alloy; adding the aluminum ingots, and/or selectively added electrolytic copper, and 1/3 of the zinc ingots at a bottom of a furnace, stirring evenly after all materials are melted, adding the remaining zinc ingots, and using a bell to press the magnesium ingot to the bottom of the furnace at about 540°C after the materials are all melted, after the magnesium ingot is melted, adding selectively a refiner, adding a purifying agent for purifying after the refiner is fully reacted, then removing residue and gas, allowing a product to stand after a composition test is qualified, and casting boat-shaped ingots after slagging and taking out of the furnace, wherein the refiner is a salt refiner containing a titanium salt or a boron salt or a composite of both, and is not an intermediate alloy containing RE or Zr or B.
An epi-illuminator for a sample , the epi-illuminator comprising: a planar platform having a sample side configured to support the sample , wherein the sample side has an area within the range from 10 cm 2 to 500 cm 2 ; an excitation light source comprising a laser and an optical diffuser , wherein the excitation light source is configured to illuminate the area of the planar platform sample side with substantially uniform intensity, wherein the optical diffuser is mounted above the planar platform and positioned between the laser and the planar platform along an optical path of the laser , wherein the laser has a power within the range from 5 W to 500 W; and a sensor configured to detect fluorescence emission light emitting from the sample , wherein the fluorescence emission light has a fluorescence emission wavelength, and wherein the excitation light has no particular wavelength of light associated with fluorescence emissions from the sample, characterized in that the laser comprises a plurality of spatial modes, each spatial mode has a particular beam pattern, and the different spatial modes are specifically chosen from the plurality of spatial modes and configured to produce a combined illumination that is spatially incoherent. a planar platform having a sample side configured to support the sample , wherein the sample side has an area within the range from 10 cm 2 to 500 cm 2 ; an excitation light source comprising a laser and an optical diffuser , wherein the excitation light source is configured to illuminate the area of the planar platform sample side with substantially uniform intensity, wherein the optical diffuser is mounted above the planar platform and positioned between the laser and the planar platform along an optical path of the laser , wherein the laser has a power within the range from 5 W to 500 W; and a sensor configured to detect fluorescence emission light emitting from the sample , wherein the fluorescence emission light has a fluorescence emission wavelength, and wherein the excitation light has no particular wavelength of light associated with fluorescence emissions from the sample, characterized in that the laser comprises a plurality of spatial modes, each spatial mode has a particular beam pattern, and the different spatial modes are specifically chosen from the plurality of spatial modes and configured to produce a combined illumination that is spatially incoherent.
Apparatus, comprising: fabric formed from fibers ; and an electrical component having a plastic package with opposing first and second surfaces, a first fiber receiving and holding structure in the first surface, and a second fiber receiving and holding structure in the second surface, wherein the second fiber receiving and holding structure is perpendicular to the first fiber receiving and holding structure (96, 96', 96-1, 96-2), wherein a first of the fibers is soldered to a first contact in the first fiber receiving and holding structure and a second of the fibers is soldered to a second contact in the second fiber receiving and holding structure. fabric formed from fibers ; and an electrical component having a plastic package with opposing first and second surfaces, a first fiber receiving and holding structure in the first surface, and a second fiber receiving and holding structure in the second surface, wherein the second fiber receiving and holding structure is perpendicular to the first fiber receiving and holding structure (96, 96', 96-1, 96-2), wherein a first of the fibers is soldered to a first contact in the first fiber receiving and holding structure and a second of the fibers is soldered to a second contact in the second fiber receiving and holding structure.
A paint composition comprising: 15 parts by weight to 20 parts by weight of an oxide nanostructure as a pigment, wherein the oxide nanostructure is molybdenum oxide nanoplates; 60 parts by weight to 70 parts by weight of alkyd synthetic resin as a binder; 0.5 part by weight to 1.0 part by weight of a stabilizer; 0.3 part by weight to 0.7 part by weight of an anti-precipitator; 0.05 part by weight to 0.15 part by weight of a thickener; 0.5 part by weight to 1.0 part by weight of a humectant; 1.0 part by weight to 2.0 parts by weight of a desiccant, wherein the desiccant includes 0.5 part by weight to 1.0 part by weight of an external desiccant and 0.5 part by weight to 1.0 part by weight of an internal desiccant, wherein the external desiccant is cobalt naphthenate and the internal desiccant is nano-sized zirconia; and 15 parts by weight to 20 parts by weight of a diluent. 15 parts by weight to 20 parts by weight of an oxide nanostructure as a pigment, wherein the oxide nanostructure is molybdenum oxide nanoplates; 60 parts by weight to 70 parts by weight of alkyd synthetic resin as a binder; 0.5 part by weight to 1.0 part by weight of a stabilizer; 0.3 part by weight to 0.7 part by weight of an anti-precipitator; 0.05 part by weight to 0.15 part by weight of a thickener; 0.5 part by weight to 1.0 part by weight of a humectant; 1.0 part by weight to 2.0 parts by weight of a desiccant, wherein the desiccant includes 0.5 part by weight to 1.0 part by weight of an external desiccant and 0.5 part by weight to 1.0 part by weight of an internal desiccant, wherein the external desiccant is cobalt naphthenate and the internal desiccant is nano-sized zirconia; and 15 parts by weight to 20 parts by weight of a diluent.
Powder particles, comprising large particles to be a main component of a sintering body, and thermoplastic resin particles having a smaller particle size than the large particles and loaded on surfaces of the large particles, wherein the thermoplastic resin particles are scattered on the surfaces of the large particles in an amount within a predetermined volume ratio range with respect to the large particles, and loaded on the large particles in a manner to form resin pools in contact point peripheral areas of adjoining ones of the large particles when the thermoplastic resin particles are melted, wherein the thermoplastic resin particles are within a volume ratio range of from 2% to 5% with respect to the large particles, or wherein the number of the thermoplastic resin particles loaded on a surface of each of the large particles is not less than 4 and not more than 120, wherein small particles having easy sinterability or a function as an auxiliary sintering additive and a smaller particle size than the large particles are attached on the surfaces of the large particles, wherein the small particles have an average particle size of not more than 150 nm, and wherein the large particles have an average particles size of not less than 500 nm and not more than 5 μm. wherein the thermoplastic resin particles are within a volume ratio range of from 2% to 5% with respect to the large particles, or wherein the number of the thermoplastic resin particles loaded on a surface of each of the large particles is not less than 4 and not more than 120, wherein small particles having easy sinterability or a function as an auxiliary sintering additive and a smaller particle size than the large particles are attached on the surfaces of the large particles, wherein the small particles have an average particle size of not more than 150 nm, and wherein the large particles have an average particles size of not less than 500 nm and not more than 5 μm.
An apparatus for determining the hematocrit level and/or the hemoglobin level of a fluid circulating in a tubular portion , comprising: - two transceiver assemblies (10; 20), each transceiver assembly (10; 20) comprising a light source (11; 21) and a light sensor (12; 22) provided to be arranged on either side of the tubular portion at a fluid circulation area for a measurement in transmission through curved walls of the tubular portion ; - the light source (11; 21) of each of the two transceiver assemblies (10; 20) being configured to emit light beams according to an emission wavelength chosen to correspond to an isosbestic point of hemoglobin; each transceiver assembly (10; 20) further comprising a collimation system for collimating (13; 23) the light beam emitted from the corresponding light source (11; 21) in the direction of the corresponding light sensor (12; 22). - two transceiver assemblies (10; 20), each transceiver assembly (10; 20) comprising a light source (11; 21) and a light sensor (12; 22) provided to be arranged on either side of the tubular portion at a fluid circulation area for a measurement in transmission through curved walls of the tubular portion ; - the light source (11; 21) of each of the two transceiver assemblies (10; 20) being configured to emit light beams according to an emission wavelength chosen to correspond to an isosbestic point of hemoglobin;
A plug door device comprising: a stationary base fixed to a body of a vehicle; a slidable base provided on the stationary base so as to be movable in a width direction of the vehicle relative to the stationary base ; a door drive mechanism provided on the slidable base and configured to move a door for opening and closing a doorway of the vehicle in a front-rear direction of the vehicle; and a swing arm mechanism according to claim 10. a stationary base fixed to a body of a vehicle; a slidable base provided on the stationary base so as to be movable in a width direction of the vehicle relative to the stationary base ; a door drive mechanism provided on the slidable base and configured to move a door for opening and closing a doorway of the vehicle in a front-rear direction of the vehicle; and a swing arm mechanism according to claim 10.
A system comprising: a clock module , of a master radio device , configured to provide a master clock signal having a master clock frequency, the clock module including a digital phase locked loop synchronized with a synchronous Ethernet clock to assist in generating the master clock signal having the master clock frequency; a counter module , of the master radio device, configured to increment or decrement a master device counter value in response to the master clock signal; a packet generation module , of the master radio device, configured to monitor the master device counter value and to generate synchronization packets each time the master device counter value reaches a predefined threshold value; and a communication module , of the master radio device, configured to transmit the synchronization packet to a slave radio device over a dedicated out of band channel of a radio link coupling the system to the slave radio device, the synchronization packet being genenerated based on the master clock frequency, the slave device being configured to use each synchronization packet to synchronize a slave clock frequency to an estimated clock frequency corresponding to the master clock frequency based on a time when each synchronization packet was received, on a slave device counter value, and on a history of one or more previous synchronization packet arrival times, and on a history of one or more previous estimated clock frequencies. a clock module , of a master radio device , configured to provide a master clock signal having a master clock frequency, the clock module including a digital phase locked loop synchronized with a synchronous Ethernet clock to assist in generating the master clock signal having the master clock frequency; a counter module , of the master radio device, configured to increment or decrement a master device counter value in response to the master clock signal; a packet generation module , of the master radio device, configured to monitor the master device counter value and to generate synchronization packets each time the master device counter value reaches a predefined threshold value; and a communication module , of the master radio device, configured to transmit the synchronization packet to a slave radio device over a dedicated out of band channel of a radio link coupling the system to the slave radio device, the synchronization packet being genenerated based on the master clock frequency, the slave device being configured to use each synchronization packet to synchronize a slave clock frequency to an estimated clock frequency corresponding to the master clock frequency based on a time when each synchronization packet was received, on a slave device counter value, and on a history of one or more previous synchronization packet arrival times, and on a history of one or more previous estimated clock frequencies.
A computer-implemented method of evaluating a dental preparation surface comprising: obtaining a digital oral situation and/or a portion thereof, comprising a preparation surface , wherein the preparation surface is configured to receive a digital dental prosthesis; evaluating at least one attainable thickness, wherein the attainable thickness is configured as a distance between the preparation surface and the surrounding(s), the surrounding(s) comprising parts of the digital oral situation that are not part of the preparation surface ; and comparing the at least one attainable thickness to at least one minimum thickness as required by the digital dental restoration, characterized in that the method comprises using a software trained to detect the preparation surface by segmenting the oral situation to identify teeth and identifying based on the shape of teeth, the preparation surface . obtaining a digital oral situation and/or a portion thereof, comprising a preparation surface , wherein the preparation surface is configured to receive a digital dental prosthesis; evaluating at least one attainable thickness, wherein the attainable thickness is configured as a distance between the preparation surface and the surrounding(s), the surrounding(s) comprising parts of the digital oral situation that are not part of the preparation surface ; and comparing the at least one attainable thickness to at least one minimum thickness as required by the digital dental restoration, characterized in that the method comprises using a software trained to detect the preparation surface by segmenting the oral situation to identify teeth and identifying based on the shape of teeth, the preparation surface .
A resonator assembly for a drivetrain assembly of a power toothbrush device, the resonator assembly comprising: a resonator connected to a drivetrain shaft configured to transmit motion generated by the drivetrain assembly to a brush head member , wherein the resonator is configured to rotate about a central axis (A) of the power toothbrush device to periodically move a set of bristles of the brush head member in a first movement pattern; a fixed point positioned on a frame of the power toothbrush device; a resilient member connected at a first end proximate to the resonator and at a second end to the fixed point ; a magnet connected with the resonator; and a conductor connected with the frame, wherein the conductor is proximate to the magnet; wherein when the magnet moves toward the conductor in a first direction , a force (D T ) is generated upon the magnet in a second direction that is opposite the first direction, and the force (D T ) generated upon the magnet thereby causes a torque on the resilient member and the torque generates a rotation of the resilient member about a second axis (B) that is different than the central axis. a resonator connected to a drivetrain shaft configured to transmit motion generated by the drivetrain assembly to a brush head member , wherein the resonator is configured to rotate about a central axis (A) of the power toothbrush device to periodically move a set of bristles of the brush head member in a first movement pattern; a fixed point positioned on a frame of the power toothbrush device; a resilient member connected at a first end proximate to the resonator and at a second end to the fixed point ; a magnet connected with the resonator; and a conductor connected with the frame, wherein the conductor is proximate to the magnet; wherein when the magnet moves toward the conductor in a first direction , a force (D T ) is generated upon the magnet in a second direction that is opposite the first direction, and the force (D T ) generated upon the magnet thereby causes a torque on the resilient member and the torque generates a rotation of the resilient member about a second axis (B) that is different than the central axis.
Method for producing a pane with an electrical connection element, comprising (a) providing a substrate , (b) applying an electrically conductive structure on a region of the substrate , (c) arranging a soldering compound on a region of the electrically conductive structure and an electrical connection element on the soldering compound , (d) soldering the connection element with a soldering iron having a soldering tip , characterized in that , the soldering tip comprises a substantially hemispherical end portion . (a) providing a substrate , (b) applying an electrically conductive structure on a region of the substrate , (c) arranging a soldering compound on a region of the electrically conductive structure and an electrical connection element on the soldering compound , (d) soldering the connection element with a soldering iron having a soldering tip ,
A process for preparing a seed crystal provided with a protective layer, which comprises molding a composition that comprises a binder resin into a sheet form to prepare a protective layer; cutting the protective layer and attaching it to the rear side of a seed crystal of a silicon carbide (SiC) single crystal by pressure thereon; and curing and carbonizing the protective layer attached to the seed crystal, wherein the protective layer has a diameter larger than that of the seed crystal, whereby it covers the entire rear side of the seed crystal and has a protrusion member that protrudes outward from the periphery of the seed crystal. cutting the protective layer and attaching it to the rear side of a seed crystal of a silicon carbide (SiC) single crystal by pressure thereon; and curing and carbonizing the protective layer attached to the seed crystal, wherein the protective layer has a diameter larger than that of the seed crystal, whereby it covers the entire rear side of the seed crystal and has a protrusion member that protrudes outward from the periphery of the seed crystal.
A water processing device which is provided for removing micro-pollutants, in particular medicaments, from water, said device comprising a housing (48a - 48d) and at least one adsorption unit (18a - 18d) which is arranged in the housing (48a - 48d) and which at least partially adsorbs the micro-pollutants in an operating state and which comprises at least one non-specific adsorption element (50a - 50d), wherein the non-specific adsorption element (50a - 50d) comprises activated carbon and/or a mineral adsorbent, wherein the mineral adsorbent is selected from bentonite, diatomaceous earth, silica gel, alumina, zinc oxide or mixtures thereof, characterised in that the adsorption unit (18a - 18d) comprises at least one specific adsorption element (52a - 52d), wherein the specific adsorption element (52a - 52d) comprises at least one reversed-phase adsorbent and wherein the specific adsorption element (52a - 52d) comprises at least one ion exchanger adsorbent and/or at least one adsorbent which is provided for adsorption by means of hydrogen bridges.