mhurhangee/patent-ind-claim-en huggingface dataset:
A process of fabricating a one-dimensional path of aligned one by one particles on the surface of a substrate, wherein a) a dispersion of electrically conductive particles in an electrically weakly-conductive liquid is prepared, and wherein the value of the dielectric constant of the particles is at least twice that of the dielectric constant of the dispersion liquid, whereas the value of the electrical conductivity of the particles is at least one order of magnitude larger than that of the dispersion liquid; b) the prepared dispersion is supplied in a continuous manner to at least one electrically conductive microcapillary; c) the convex meniscus of the dispersion is formed and maintained at the outlet end of the microcapillary positioned above and/or below the surface of a substrate; d) alternating voltage is provided to the microcapillary, so that a one-dimensional structure of aligned one by one particles is formed between the dispersion meniscus and the surface of the substrate; and e) the microcapillary is moved relative to the substrate and/or the substrate relative to the microcapillary so that the particles of the formed one-dimensional structure of aligned one by one particles are deposited on the surface of the substrate and the one-dimensional structure of aligned one by one particles formed between the dispersion meniscus and the surface of the substrate is rebuilt simultaneously, so that a one-dimensional path of aligned one by one particles is fabricated on the surface of that substrate. a) a dispersion of electrically conductive particles in an electrically weakly-conductive liquid is prepared, and wherein the value of the dielectric constant of the particles is at least twice that of the dielectric constant of the dispersion liquid, whereas the value of the electrical conductivity of the particles is at least one order of magnitude larger than that of the dispersion liquid; b) the prepared dispersion is supplied in a continuous manner to at least one electrically conductive microcapillary; c) the convex meniscus of the dispersion is formed and maintained at the outlet end of the microcapillary positioned above and/or below the surface of a substrate; d) alternating voltage is provided to the microcapillary, so that a one-dimensional structure of aligned one by one particles is formed between the dispersion meniscus and the surface of the substrate; and e) the microcapillary is moved relative to the substrate and/or the substrate relative to the microcapillary so that the particles of the formed one-dimensional structure of aligned one by one particles are deposited on the surface of the substrate and the one-dimensional structure of aligned one by one particles formed between the dispersion meniscus and the surface of the substrate is rebuilt simultaneously, so that a one-dimensional path of aligned one by one particles is fabricated on the surface of that substrate.
An aluminum alloy powder, comprising the following components by mass percent: 1.00 wt% to 10.00 wt% of Mg, 02 wt% to 1 wt% of Sc, 0.1 wt% to 1.60 wt% of Zr, 0.1 wt% to 1 wt% of Mn, 0.01 wt% to 0.90 wt% of Fe, 0.01 wt% to 3.00 wt% of Cu, 1 wt% to 3 wt% of Si, 0.01 wt% to 3.50 wt% of Zn, 0.01 wt% to 0.08 wt% of Cr, 0.01 wt% to 0.08 wt% of Ni, and the balance of Al.
An expansion valve comprising: a main body unit in which a valve chamber and a refrigerant dividing chamber are separated by a separation wall , an expansion section is opened to the separation wall so that the valve chamber and the refrigerant dividing chamber communicate with each other, and a plurality of branch ports that communicate with the refrigerant dividing chamber are provided; a valve body configured to adjust an opening of the expansion section ; and a partition section in a plate shape that is disposed in the refrigerant dividing chamber so as to separate the refrigerant dividing chamber for the plurality of branch ports, wherein at least part of an upper edge of the partition section is positioned in an opening of the expansion section in vertical view to the separation wall and, characterised in that a maximum distance between a lower surface of the separation wall to which the expansion section is open and the upper edge of the partition section is smaller than a diameter of the expansion section . a main body unit in which a valve chamber and a refrigerant dividing chamber are separated by a separation wall , an expansion section is opened to the separation wall so that the valve chamber and the refrigerant dividing chamber communicate with each other, and a plurality of branch ports that communicate with the refrigerant dividing chamber are provided; a valve body configured to adjust an opening of the expansion section ; and a partition section in a plate shape that is disposed in the refrigerant dividing chamber so as to separate the refrigerant dividing chamber for the plurality of branch ports, wherein at least part of an upper edge of the partition section is positioned in an opening of the expansion section in vertical view to the separation wall and, characterised in that a maximum distance between a lower surface of the separation wall to which the expansion section is open and the upper edge of the partition section is smaller than a diameter of the expansion section .
A power interface comprising: a housing having an inner wall , the inner wall defining a stopping groove ; and a connection body , disposed in the housing and comprising a first encapsulation portion , a second encapsulation portion embedded in the first encapsulation portion , and a plurality of pins spaced apart, wherein an outer periphery of the pins is wrapped by the first encapsulation portion and the second encapsulation portion , and the first encapsulation portion is connected to the housing , the first encapsulation portion has an engaging flange arranged at a rear end of the pins , the engaging flange extends along a circumferential direction of the connection body , the stopping groove extends along a circumferential direction of the connection body , and the engaging flange is engaged in the stopping groove ; the first encapsulation portion defines a body-embedding notch and an extension-embedding notch , and the second encapsulation portion comprises a body-embedding portion and an extension-embedding portion connected to the body-embedding portion , the body-embedding portion is embedded in the body-embedding notch , and the extension-embedding portion is adapted to the extension-embedding notch and a front-end surface of the extension-embedding portion is configured as the front-end surface of the connection body . a housing having an inner wall , the inner wall defining a stopping groove ; and a connection body , disposed in the housing and comprising a first encapsulation portion , a second encapsulation portion embedded in the first encapsulation portion , and a plurality of pins spaced apart, wherein an outer periphery of the pins is wrapped by the first encapsulation portion and the second encapsulation portion , and the first encapsulation portion is connected to the housing , the first encapsulation portion has an engaging flange arranged at a rear end of the pins , the engaging flange extends along a circumferential direction of the connection body , the stopping groove extends along a circumferential direction of the connection body , and the engaging flange is engaged in the stopping groove ; the first encapsulation portion defines a body-embedding notch and an extension-embedding notch , and the second encapsulation portion comprises a body-embedding portion and an extension-embedding portion connected to the body-embedding portion , the body-embedding portion is embedded in the body-embedding notch , and the extension-embedding portion is adapted to the extension-embedding notch and a front-end surface of the extension-embedding portion is configured as the front-end surface of the connection body .
A standard sample used to evaluate a microscope capable of performing observation in a nanometer size, including a scanning probe microscope, comprising: a substrate made of a crystal with a main surface that is a plane; and a recess formed from the main surface of the substrate to an inside of the substrate , wherein the recess includes a side surface that forms one plane perpendicular to the main surface of the substrate , and an edge portion formed by the main surface of the substrate and the side surface , characterized in that the side surface is a facet surface and is a tilting surface tilted from a plane, and the edge portion includes a periodical level difference structure on a nanometer order. a substrate made of a crystal with a main surface that is a plane; and a recess formed from the main surface of the substrate to an inside of the substrate , wherein the recess includes a side surface that forms one plane perpendicular to the main surface of the substrate , and an edge portion formed by the main surface of the substrate and the side surface , characterized in that the side surface is a facet surface and is a tilting surface tilted from a plane, and the edge portion includes a periodical level difference structure on a nanometer order.
A mechanical watch comprising an oscillator embodied with a frame supporting vibratory masses , wherein each vibratory mass connects to at least one flexural member (6-13), the watch further comprising an escape wheel , and anchor teeth that are indirectly connected with the vibratory mass or masses , which anchor teeth cooperate with the escape wheel , wherein motions of the anchor teeth depend on motions of one or more of the flexural members that provide connections between the vibratory masses without said flexural members connecting directly to the frame , wherein said flexural members that provide connections between the vibratory masses without connecting directly to the frame are free from rigid sections and support a movable rigid portion of the oscillator that is separate from the flexural members , which movable rigid portion is suspended from the vibratory masses through said flexural members that are free from rigid sections.
A method in a user equipment, UE, for configuration management when the UE operates in multi-radio dual connectivity (MR-DC), the method comprising: receiving, by processing hardware and from a radio access network, RAN, , conditional configuration information including i) a conditional configuration related to a base station operating in the RAN, and ii) a condition to be satisfied before the UE applies the configuration; receiving, by the processing hardware and from the RAN, an indication that the UE is to release the MR-DC; and releasing, by the processing hardware in response to the indication, the conditional configuration. receiving, by processing hardware and from a radio access network, RAN, , conditional configuration information including i) a conditional configuration related to a base station operating in the RAN, and ii) a condition to be satisfied before the UE applies the configuration; receiving, by the processing hardware and from the RAN, an indication that the UE is to release the MR-DC; and releasing, by the processing hardware in response to the indication, the conditional configuration.
Method for automatically undocking a passenger boarding bridge from an aircraft , the aircraft having a fuselage and a door , the passenger boarding bridge is initially located in a docked position wherein a bridgehead of the passenger boarding bridge is aligned to the door , the method comprising the following steps: - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, characterized in that the movement of the passenger boarding bridge is controlled in a manner, that as long as the bridgehead is still within a safety distance (d20) from the aircraft , a direction of movement (P) of the bridgehead is perpendicular to a direction (F) of the fuselage . the passenger boarding bridge is initially located in a docked position wherein a bridgehead of the passenger boarding bridge is aligned to the door , the method comprising the following steps: - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, characterized in that the movement of the passenger boarding bridge is controlled in a manner, that as long as the bridgehead is still within a safety distance (d20) from the aircraft , a direction of movement (P) of the bridgehead is perpendicular to a direction (F) of the fuselage .
A power supply unit for an aerosol inhaler , the power supply unit comprising: a power supply able to discharge power to a load for generating an aerosol from an aerosol generation source; a first circuit board including a resistor ; and a second circuit board disposed apart from the first circuit board , and electrically connected to the first circuit board , characterized in that the second circuit board includes a charging device configured to convert input power into charging power for the power supply , and that the resistor has such a resistance value that an amount of power consumption of the resistor during charging of the power supply becomes larger than an amount of power consumption of the charging device during charging of the power supply . a power supply able to discharge power to a load for generating an aerosol from an aerosol generation source; a first circuit board including a resistor ; and a second circuit board disposed apart from the first circuit board , and electrically connected to the first circuit board , characterized in that the second circuit board includes a charging device configured to convert input power into charging power for the power supply , and that the resistor has such a resistance value that an amount of power consumption of the resistor during charging of the power supply becomes larger than an amount of power consumption of the charging device during charging of the power supply .
A liquid ejection head capable of ejecting a liquid (I) supplied from a liquid container with a negative pressure generating section (31, 33-1, 33-2), the liquid ejection head comprising: an ejection port configured to eject the liquid (I), a liquid chamber configured to contain the liquid (I) to be ejected from the ejection port ; a liquid supply section configured to allow the liquid (I) to be supplied from the liquid container to the liquid chamber ; and an opening configured to communicate with the liquid chamber and to enable at least a gas to flow into the liquid chamber through the opening ; characterized by further comprising: a filter member provided on an opening of the liquid supply section and configured to apply a meniscus force (Pf) to the liquid (I), the meniscus force (Pf) applied by the filter member being larger than a meniscus force (Pn) applied by the ejection port to the liquid (I); and a channel forming member provided in the liquid supply section and configured to form a plurality of channels communicating between the liquid supply section and the liquid chamber , the channel forming member applying a meniscus force (Pk) to the liquid (I), the meniscus force (Pk) applied by the channel forming member being smaller than the meniscus force (Pn) applied by the ejection port to the liquid (I). an ejection port configured to eject the liquid (I), a liquid chamber configured to contain the liquid (I) to be ejected from the ejection port ; a liquid supply section configured to allow the liquid (I) to be supplied from the liquid container to the liquid chamber ; and an opening configured to communicate with the liquid chamber and to enable at least a gas to flow into the liquid chamber through the opening ; characterized by further comprising: a filter member provided on an opening of the liquid supply section and configured to apply a meniscus force (Pf) to the liquid (I), the meniscus force (Pf) applied by the filter member being larger than a meniscus force (Pn) applied by the ejection port to the liquid (I); and a channel forming member provided in the liquid supply section and configured to form a plurality of channels communicating between the liquid supply section and the liquid chamber , the channel forming member applying a meniscus force (Pk) to the liquid (I), the meniscus force (Pk) applied by the channel forming member being smaller than the meniscus force (Pn) applied by the ejection port to the liquid (I). a filter member provided on an opening of the liquid supply section and configured to apply a meniscus force (Pf) to the liquid (I), the meniscus force (Pf) applied by the filter member being larger than a meniscus force (Pn) applied by the ejection port to the liquid (I); and a channel forming member provided in the liquid supply section and configured to form a plurality of channels communicating between the liquid supply section and the liquid chamber , the channel forming member applying a meniscus force (Pk) to the liquid (I), the meniscus force (Pk) applied by the channel forming member being smaller than the meniscus force (Pn) applied by the ejection port to the liquid (I).
Method for printing a three-dimensional optical component by depositing droplets of printing ink side by side and one above the other in several consecutive depositing steps by means of a print head , wherein in each depositing step a plurality of droplets is ejected simultaneously by a plurality of ejection nozzles of the print head , wherein after at least one depositing step properties of a pre-structure built up by the deposited droplets are measured by a measuring unit in a measuring step , wherein ejection characteristics of the ejection nozzles are determined in dependency of the measured properties in a determining step and at least one following depositing step is performed in dependency of the determined ejection characteristics, characterized in that the printing ink comprises transparent or translucent printing ink.
A pharmaceutical formulation of anti-lgE antibody rhuMAb E25, characterized in that the formulation is: about 150 g/L of the anti-IgE antibody in 0.02 M histidine, 0.2 M arginine-HCl, 0.04% polysorbate 20, pH 6.
A centered double universal joint comprising: a housing having a first inner joint fork and a second inner joint fork , a first outer joint fork hingedly connected to the first inner joint fork via a first trunnion cross , a second outer joint fork hingedly connected to the second inner joint fork via a second trunnion cross , an annular recess in the housing disposed about a longitudinal axis of the housing , a guide disc that is guided in a radially adjustable manner in the annular recess of the housing , the two outer joint forks being coupled in an articulated manner to the guide disc , and two floating discs arranged in the axial direction on both sides of the guide disc in the annular recess , characterized in that the housing , the floating discs or the guide disc is/are magnetized, exerting a magnetic force on the floating discs in the direction of the longitudinal axis . a housing having a first inner joint fork and a second inner joint fork , a first outer joint fork hingedly connected to the first inner joint fork via a first trunnion cross , a second outer joint fork hingedly connected to the second inner joint fork via a second trunnion cross , an annular recess in the housing disposed about a longitudinal axis of the housing , a guide disc that is guided in a radially adjustable manner in the annular recess of the housing , the two outer joint forks being coupled in an articulated manner to the guide disc , and two floating discs arranged in the axial direction on both sides of the guide disc in the annular recess , characterized in that the housing , the floating discs or the guide disc is/are magnetized, exerting a magnetic force on the floating discs in the direction of the longitudinal axis .
An air and gas feeder device for gas boilers, comprising an air-gas conveyance body which comprises: - a boiler coupling face configured to be coupled to a boiler at an intake duct of the boiler; - an air intake port connected to an air discharge opening by means of an air passage , said air discharge opening leading out from said boiler coupling face ; - a gas intake port , configured to be fixed to a gas dispensing duct in fluid communication with a gas discharge opening , which leads out from said boiler coupling face ; wherein the air discharge opening is coaxial to, and at least partially surrounded by, the gas discharge opening ; wherein said air passage accommodates a flow diverter configured to divert an air flow in output from the air discharge opening in the direction of the gas in output from the gas discharge opening and to impart a rotation to said air flow. - a boiler coupling face configured to be coupled to a boiler at an intake duct of the boiler; - an air intake port connected to an air discharge opening by means of an air passage , said air discharge opening leading out from said boiler coupling face ; - a gas intake port , configured to be fixed to a gas dispensing duct in fluid communication with a gas discharge opening , which leads out from said boiler coupling face ; wherein the air discharge opening is coaxial to, and at least partially surrounded by, the gas discharge opening ; wherein said air passage accommodates a flow diverter configured to divert an air flow in output from the air discharge opening in the direction of the gas in output from the gas discharge opening and to impart a rotation to said air flow.
A power tool comprising: - a housing , - an electric motor comprising a rotor , - a clutch comprising: a pressure plate configured to be rotatably driven by the rotor , a cam follower plate , a shaft rotationally fixed relative to the cam follower plate , and a preloaded resilient member arranged around the shaft and configured to press the cam follower plate against the pressure plate to rotationally fix the cam follower plate relative to the pressure plate ; - a stationary body arranged around the shaft and being stationary relative to the housing , - an axial force sensor arranged on the stationary body , and - a thrust bearing or slip ring connected to the shaft and to the axial force sensor , wherein the resilient member exerts an axial force on the thrust bearing or slip ring , and wherein the axial force sensor is configured to detect the axial force and convert it to a measurement signal. - a housing , - an electric motor comprising a rotor , - a clutch comprising: a pressure plate configured to be rotatably driven by the rotor , a cam follower plate , a shaft rotationally fixed relative to the cam follower plate , and a preloaded resilient member arranged around the shaft and configured to press the cam follower plate against the pressure plate to rotationally fix the cam follower plate relative to the pressure plate ; a pressure plate configured to be rotatably driven by the rotor , a cam follower plate , a shaft rotationally fixed relative to the cam follower plate , and a preloaded resilient member arranged around the shaft and configured to press the cam follower plate against the pressure plate to rotationally fix the cam follower plate relative to the pressure plate ; - a stationary body arranged around the shaft and being stationary relative to the housing , - an axial force sensor arranged on the stationary body , and - a thrust bearing or slip ring connected to the shaft and to the axial force sensor ,