mhurhangee/patent-ind-claim-en huggingface dataset:
A device for microfluidic transport, comprising: a first fluid reservoir ; a second fluid reservoir spaced from the first fluid reservoir; a main fluid channel communicated with the first fluid reservoir and the second fluid reservoir ; characterized in that said device comprises a single auxiliary fluid channel communicated with the main fluid channel , wherein the position of the auxiliary fluid channel is offset relative to a midpoint of the main fluid channel between the first fluid reservoir and the second fluid reservoir ; and a fluid actuator within the auxiliary fluid channel , the fluid actuator being configured to induce fluid flow in the main fluid channel from the first reservoir toward the second reservoir , wherein the device does not comprise a fluid actuator except in the auxiliary fluid channel , and wherein the activation of the fluid actuator in the auxiliary fluid channel produces main fluid flow in the main fluid channel. a first fluid reservoir ; a second fluid reservoir spaced from the first fluid reservoir; a main fluid channel communicated with the first fluid reservoir and the second fluid reservoir ; characterized in that said device comprises a single auxiliary fluid channel communicated with the main fluid channel , wherein the position of the auxiliary fluid channel is offset relative to a midpoint of the main fluid channel between the first fluid reservoir and the second fluid reservoir ; and a fluid actuator within the auxiliary fluid channel , the fluid actuator being configured to induce fluid flow in the main fluid channel from the first reservoir toward the second reservoir , wherein the device does not comprise a fluid actuator except in the auxiliary fluid channel , and wherein the activation of the fluid actuator in the auxiliary fluid channel produces main fluid flow in the main fluid channel.
A user equipment in a mobile communication system including a base station and the user equipment, the user equipment comprising: selection means configured to receive a plurality of signaling values and a plurality of maximum transmission power values corresponding to the plurality of signaling values respectively from the base station, to select one signaling value of the plurality of signaling values, and to select a maximum transmission power value corresponding to the selected signaling value; and control means configured to perform cell selection or cell reselection by determining whether at least Equation 1, Srxlev > 0, is satisfied in a cell to be determined in the cell selection or cell reselection, wherein Srxlev in Equation 1 is expressed by Equation 2, Srxlev = Q rxlevmeas - (Q rxlevmin + Q rxlevminoffset ) - Pcompensation, Q rxlevmeas in Equation 2 denotes a reception level value measured for the cell to be determined, Q rxlevmin in Equation 2 denotes a minimum reception level required for the cell, and Q rxlevminoffset in Equation 2 denotes an offset, Pcompensation in Equation 2 is expressed by Equation 3, max (P EMAX1 - P PowerClass , 0) - (min (P EMAX2 , P PowerClass ) - min (P EMAX1 , P PowerClass )), and P EMAX1 in Equation 3 denotes a predetermined maximum transmission power value, P EMAX2 in Equation 3 denotes a maximum transmission power value selected by the selection means, and P PowerClass in Equation 3 denotes a maximum output power value based on a power class of the user equipment. selection means configured to receive a plurality of signaling values and a plurality of maximum transmission power values corresponding to the plurality of signaling values respectively from the base station, to select one signaling value of the plurality of signaling values, and to select a maximum transmission power value corresponding to the selected signaling value; and control means configured to perform cell selection or cell reselection by determining whether at least Equation 1, Srxlev > 0, is satisfied in a cell to be determined in the cell selection or cell reselection, wherein Srxlev in Equation 1 is expressed by Equation 2, Srxlev = Q rxlevmeas - (Q rxlevmin + Q rxlevminoffset ) - Pcompensation, Q rxlevmeas in Equation 2 denotes a reception level value measured for the cell to be determined, Q rxlevmin in Equation 2 denotes a minimum reception level required for the cell, and Q rxlevminoffset in Equation 2 denotes an offset, Pcompensation in Equation 2 is expressed by Equation 3, max (P EMAX1 - P PowerClass , 0) - (min (P EMAX2 , P PowerClass ) - min (P EMAX1 , P PowerClass )), and P EMAX1 in Equation 3 denotes a predetermined maximum transmission power value, P EMAX2 in Equation 3 denotes a maximum transmission power value selected by the selection means, and P PowerClass in Equation 3 denotes a maximum output power value based on a power class of the user equipment.
A composition comprising (A) an acrylic acid derivative of formula (I): wherein, R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl or optionally substituted aryl; and R c is F, Br, I, or -OR 3 wherein R 3 is H, alkyl, fluoroalkyl or optionally substituted aryl; and (B) amide, wherein the content of the acrylic acid derivative (A) in the composition is ≥ 30% (w/w). (A) an acrylic acid derivative of formula (I): wherein, R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl or optionally substituted aryl; and R c is F, Br, I, or -OR 3 wherein R 3 is H, alkyl, fluoroalkyl or optionally substituted aryl; and (B) amide, wherein the content of the acrylic acid derivative (A) in the composition is ≥ 30% (w/w).
A flexible display apparatus, comprising: a base layer having a first section, a second section, and a bend allowance section between the first section and the second section, wherein the first section includes a display area and the second section is a non-display area, wherein the display area includes a plurality of organic light-emitting diode (OLED) elements provided on the base layer; an encapsulation on the plurality of OLED elements in the display area; a printed circuit film attached to the base layer in the second section; a plurality of wire traces on the base layer in the bend allowance section between the encapsulation and the printed circuit film; a first micro-coating layer provided over the plurality of wire traces in the bend allowance section; and a second micro-coating layer provided over the plurality of wire traces in the bend allowance section, and further provided over the encapsulation in the first section and/or over the printed circuit film in the second section, wherein the second micro-coating layer is coated over the first micro-coating layer or the second micro-coating layer is coated adjacent to the sides of the first micro-coating layer, wherein at least one of the first micro-coating layer and the second micro-coating layer is formed of a photo-curable acrylic resin. a base layer having a first section, a second section, and a bend allowance section between the first section and the second section, wherein the first section includes a display area and the second section is a non-display area, wherein the display area includes a plurality of organic light-emitting diode (OLED) elements provided on the base layer; an encapsulation on the plurality of OLED elements in the display area; a printed circuit film attached to the base layer in the second section; a plurality of wire traces on the base layer in the bend allowance section between the encapsulation and the printed circuit film; a first micro-coating layer provided over the plurality of wire traces in the bend allowance section; and a second micro-coating layer provided over the plurality of wire traces in the bend allowance section, and further provided over the encapsulation in the first section and/or over the printed circuit film in the second section, wherein the second micro-coating layer is coated over the first micro-coating layer or the second micro-coating layer is coated adjacent to the sides of the first micro-coating layer, wherein at least one of the first micro-coating layer and the second micro-coating layer is formed of a photo-curable acrylic resin.
Apparatus (100; 100a; 100b; 100c; 100d; 100e; 100f; 100g; 100h; 100i; 100k) for processing signals in the radio frequency, RF, range, comprising a first layer of electrically conductive material and a second layer of electrically conductive material, and a plurality of impedance elements arranged between said first layer and said second layer , said impedance elements connecting said first layer with said second layer , wherein an impedance value of at least some of said plurality of impedance elements is configured to be controlled , wherein said first layer and/or said second layer is a contiguous layer.
Glass substrate comprising a first face (II) and a second face opposing the first face, said substrate comprising, above its second face, an electrode layer which comprises at least one electrically conducting layer where at least one layer of vitreous material comprises diffusing elements which are particles of material of index different from that of the layer of vitreous material and/or said substrate comprises diffusing elements and/or in that said first face of the substrate is a diffusing surface and/or is coated with a diffusing layer, characterized in that said substrate comprises, between its second face and the electrode layer , at least one layer of vitreous material having an index in the range between 1.7 and 2.4 including these values and comprising, on the one hand, between 40% and 60% by weight including these values, or even between 45% and 58% by weight, including these values, of bismuth oxide Bi 2 O 3 and, on the other hand, between 5% and 30% by weight, including these values and preferably between 10 and 25% by weight, including these values, of ZnO.
A method for compensating robot movement deviations caused by a gear box connected between a robot section and a motor controlling the movement of the robot section , the method comprising the steps of: - obtaining motor data ( q̇ r ) of the motor ; - obtaining motor torque data ( τ ); - determining a measure (TM) of the temperature of the gear box based on the motor data ( q̇ r ) and motor torque data ( τ ); - estimating the drift (Δ q ) based on a drift value (DV) of the robot section, said drift value in turn being obtained based on the gearbox temperature measure (TM) and a gravitational torque ( τ grav ) of the motor, where the drift value or the drift value after processing is used as the estimated drift; and - adjusting a control value ( q r ) used to control the positioning of the robot based on the estimated drift (Δ q ); wherein the estimating of the drift comprises obtaining the drift value (DV) by applying the temperature measure and gravitational torque on known relationships between drift value, temperature measure and gravitational torque and the determining of the temperature measure comprises low pass filtering the motor data, where the result of the filtering is the temperature measure. - obtaining motor data ( q̇ r ) of the motor ; - obtaining motor torque data ( τ ); - determining a measure (TM) of the temperature of the gear box based on the motor data ( q̇ r ) and motor torque data ( τ ); - estimating the drift (Δ q ) based on a drift value (DV) of the robot section, said drift value in turn being obtained based on the gearbox temperature measure (TM) and a gravitational torque ( τ grav ) of the motor, where the drift value or the drift value after processing is used as the estimated drift; and - adjusting a control value ( q r ) used to control the positioning of the robot based on the estimated drift (Δ q );
A hearing device comprising a hearing device housing having at least one microphone and a cover comprising at least one filter for covering an audio channel for channeling sound between the surroundings and the at least one microphone arranged in the hearing device housing, said hearing device housing comprising a control unit and a power source , the hearing device housing comprises a sealing for sealing the interior of the hearing device housing against damp, moist, dirt and dust for protection of the control unit and the power source, the control unit being operationely connected to the at least one microphone and the power source, the cover and the hearing device housing comprising complementary coupling parts for detachable connection such that said cover is ex-changeable, wherein the hearing device housing is kept sealed when the cover is disconnected from it, wherein the cover is exchangeable to another type of cover, and wherein the cover is exchangeable to another cover comprising another type of filter . wherein the cover is exchangeable to another type of cover, and wherein the cover is exchangeable to another cover comprising another type of filter .
A device for the abatement of noxious emissions in exhaust gases from domestic heating plants and/or from wood-burning ovens for domestic and commercial use, comprising: a tight container of substantially cylindrical shape, provided with at least a duct (E) for the inlet of exhaust gases to be treated and a duct (U) for the outlet of exhaust gases treated, inside of which container are positioned at least two substantially cylindrical portions, coaxial to said container , having surface and , and joined together by at least a flange with holes, on said surfaces and being respectively positioned in a radial pattern two arrays of perforated elements and that put in communication the inner portions having surfaces and with an interspace formed between said surfaces and the inner surface of said container so that the exhaust gases to be treated enter inside said container through said perforated elements in a lower part of the container, go upwards in said interspace through said holes of the at least one flange and exit through said perforated elements in an upper part of the container, said device further comprising an absorbing solution in such amount as to maintain said perforated elements completely immersed in said solution, and one or more separation walls in an intermediate part of the container between said arrays of perforated elements and so as to prevent a direct fluid communication between said arrays.
A flexible resistor comprising - a support made of electrically insulating material; - at least one track made of electrically conductive material incorporated in the support , adapted to be connected to an electric energy source; and - a foil made of electrically conductive material, having a surface fixed to a first face of the support ; characterised in that the flexible resistor comprises a plurality of wings defined by foil portions cut and folded transversally to said surface . - a support made of electrically insulating material; - at least one track made of electrically conductive material incorporated in the support , adapted to be connected to an electric energy source; and - a foil made of electrically conductive material, having a surface fixed to a first face of the support ;
Sensor device, of nanowire type, comprising: - at least one nanowire comprising a first conductive region , and a second region in insulator material, this second region not occupying the entire thickness of the nanowire, a current being able to circulate in the nanowire from one of its ends to the other; - at least one mobile mass attached to one of the ends of the nanowire. - at least one nanowire comprising a first conductive region , and a second region in insulator material, this second region not occupying the entire thickness of the nanowire, a current being able to circulate in the nanowire from one of its ends to the other; - at least one mobile mass attached to one of the ends of the nanowire.
A cover channel , configured for covering an edge of an insulating panel , the insulating panel comprising two substantially parallel outer walls and a thermal insulating layer interposed between said outer walls , the cover channel comprising: - an elongated body comprising: ∘ a cover portion forming a substantially flat board, ∘ two outer portions , each outer portion protruding from a respective lateral edge of said cover portion in a substantially perpendicular direction relative to the cover portion, and ∘ two clamping portions , each protruding alongside one of the outer portions and extending substantially parallel to the outer portions , each of the clamping portions defining a clamping gap with the adjacent outer portion, each of the clamping gaps being shaped to accommodate a rim portion of one of the two outer walls extending along the edge of the insulating panel, so that each of the rim portions is clamped between adjacent clamping portion and outer portion; and - at least one sealing gasket provided along the elongated body , resting against the cover portion within at least one of the clamping gaps ; characterized in that : each of the clamping portions protrudes from the cover portion and the clamping portions are arranged between the two outer portions . - an elongated body comprising: ∘ a cover portion forming a substantially flat board, ∘ two outer portions , each outer portion protruding from a respective lateral edge of said cover portion in a substantially perpendicular direction relative to the cover portion, and ∘ two clamping portions , each protruding alongside one of the outer portions and extending substantially parallel to the outer portions , each of the clamping portions defining a clamping gap with the adjacent outer portion, each of the clamping gaps being shaped to accommodate a rim portion of one of the two outer walls extending along the edge of the insulating panel, so that each of the rim portions is clamped between adjacent clamping portion and outer portion; and ∘ a cover portion forming a substantially flat board, ∘ two outer portions , each outer portion protruding from a respective lateral edge of said cover portion in a substantially perpendicular direction relative to the cover portion, and ∘ two clamping portions , each protruding alongside one of the outer portions and extending substantially parallel to the outer portions , each of the clamping portions defining a clamping gap with the adjacent outer portion, each of the clamping gaps being shaped to accommodate a rim portion of one of the two outer walls extending along the edge of the insulating panel, so that each of the rim portions is clamped between adjacent clamping portion and outer portion; and - at least one sealing gasket provided along the elongated body , resting against the cover portion within at least one of the clamping gaps ;
An apparatus for cleaning the inner surface of a pipeline from deposits and for forming a protective coating, comprising: a cleaning tool which is configured to be caused to move in the interior of the pipeline by a flow of a fluid , the cleaning tool comprising a plurality of guide discs engaging the pipeline surface and mounted along a longitudinal axis of the cleaning tool; an anode positioned inside the cleaning tool; an impressed current source configured to electrically connect to the anode and the interior of the pipeline, the interior of the pipeline configured to act as a cathode when current is applied from the current source so that ions flow from the anode, through the fluid, to the interior of the pipeline; and an encapsulant encapsulating the anode, wherein the encapsulant comprises a hydrophilic wax repellant cementitious material that is sufficiently porous to allow ions to pass therethrough. a cleaning tool which is configured to be caused to move in the interior of the pipeline by a flow of a fluid , the cleaning tool comprising a plurality of guide discs engaging the pipeline surface and mounted along a longitudinal axis of the cleaning tool; an anode positioned inside the cleaning tool; an impressed current source configured to electrically connect to the anode and the interior of the pipeline, the interior of the pipeline configured to act as a cathode when current is applied from the current source so that ions flow from the anode, through the fluid, to the interior of the pipeline; and an encapsulant encapsulating the anode, wherein the encapsulant comprises a hydrophilic wax repellant cementitious material that is sufficiently porous to allow ions to pass therethrough.
An atomizing core , comprising: a cylindrical main body having a central axis; and an atomizing rod extending from the main body along the central axis; wherein the main body and the atomizing rod are both made of porous bodies, the main body defining a through hole along the central axis; the through hole is configured to allow air to go from one side of the main body to the other side of the main body ; characterized in that : the main body comprises a connector at an end, the connector is configured for connecting with the atomizing rod , the connector defines a plurality of air slots extending along a direction parallel to the central axis, and the air slots are in communication with the through hole . a cylindrical main body having a central axis; and an atomizing rod extending from the main body along the central axis; wherein the main body and the atomizing rod are both made of porous bodies, the main body defining a through hole along the central axis; the through hole is configured to allow air to go from one side of the main body to the other side of the main body ; characterized in that : the main body comprises a connector at an end, the connector is configured for connecting with the atomizing rod , the connector defines a plurality of air slots extending along a direction parallel to the central axis, and the air slots are in communication with the through hole .
A sheet metal nut , comprising: a base including a flat planar surface ; a sleeve extending below the base , wherein the sleeve comprises an inner surface ; and at least one rear flange extending away from a rear surface of the base ; characterised by at least two front flanges positioned on an edge of the base and extending to a position directly above the flat planar surface of the base , wherein the at least one rear flange is positioned between the at least two front flanges , and wherein the sheet metal nut is configured to securely fasten to a bottom side of a component through a single aperture when the bottom side of the component is restricted or inaccessible. a base including a flat planar surface ; a sleeve extending below the base , wherein the sleeve comprises an inner surface ; and at least one rear flange extending away from a rear surface of the base ; characterised by at least two front flanges positioned on an edge of the base and extending to a position directly above the flat planar surface of the base , wherein the at least one rear flange is positioned between the at least two front flanges , and wherein the sheet metal nut is configured to securely fasten to a bottom side of a component through a single aperture when the bottom side of the component is restricted or inaccessible.