mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a display panel (DP) comprising a display area (DA) for displaying an image, and a peripheral area (PA) disposed outside of the display area (DA); and a touch sensor (TS) disposed on the display panel (DP), wherein the touch sensor (TS) comprises: a plurality of sensor electrodes (IE) formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area (TA); a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes (IE) and disposed outside of the touch active area (TA); and at least one insulating layer overlapping the display area (DA) and the peripheral area (PA), wherein at least a portion of the sensor electrodes (IE) is formed over the display area (DA) and the peripheral area (PA) characterized in that the peripheral area (PA) comprises a margin area (MA) in contact with a boundary of the display area (DA), an outermost sensor pattern (MOSP1, MOSP2) corresponding to a boundary of the sensor electrodes (IE) comprises: a first conductive layer ; and a second conductive layer connected to the first conductive layer through a contact hole (CNT) passing through the at least one insulating layer . a display panel (DP) comprising a display area (DA) for displaying an image, and a peripheral area (PA) disposed outside of the display area (DA); and a touch sensor (TS) disposed on the display panel (DP), wherein the touch sensor (TS) comprises: a plurality of sensor electrodes (IE) formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area (TA); a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes (IE) and disposed outside of the touch active area (TA); and at least one insulating layer overlapping the display area (DA) and the peripheral area (PA), a plurality of sensor electrodes (IE) formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area (TA); a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes (IE) and disposed outside of the touch active area (TA); and at least one insulating layer overlapping the display area (DA) and the peripheral area (PA), wherein at least a portion of the sensor electrodes (IE) is formed over the display area (DA) and the peripheral area (PA) characterized in that the peripheral area (PA) comprises a margin area (MA) in contact with a boundary of the display area (DA), an outermost sensor pattern (MOSP1, MOSP2) corresponding to a boundary of the sensor electrodes (IE) comprises: a first conductive layer ; and a second conductive layer connected to the first conductive layer through a contact hole (CNT) passing through the at least one insulating layer . a first conductive layer ; and a second conductive layer connected to the first conductive layer through a contact hole (CNT) passing through the at least one insulating layer .
A message parsing method, wherein the method comprises: receiving an extensible markup language, XML message; in a process of receiving the XML message, capturing , from the XML message if it is detected that a target identifier exists in the XML message, an independent message block corresponding to the target identifier; wherein the independent message block is an independent message block that can be independently parsed; parsing , through a document object model, DOM, the independent message block; parsing, through a simple API for XML, SAX, a message block of a node whose target identifier does not exist in the XML message. receiving an extensible markup language, XML message; in a process of receiving the XML message, capturing , from the XML message if it is detected that a target identifier exists in the XML message, an independent message block corresponding to the target identifier; wherein the independent message block is an independent message block that can be independently parsed; parsing , through a document object model, DOM, the independent message block; parsing, through a simple API for XML, SAX, a message block of a node whose target identifier does not exist in the XML message.
A method of forming an F-containing calcium phosphate cement material suitable for use in bone defect and endodontic applications, said method comprising mixing a powder mixture and a cement liquid wherein: said powder mixture consists of: (i) dicalcium phosphate anhydrous (DCPA) and/or dicalcium phosphate dihydrate (DCPD); and (ii) at least one compound having a Ca/P molar ratio of 1.5 or higher, said at least one compound selected from the group consisting of alpha tricalcium phosphate (aTCP), beta tricalcium phosphate (βTCP), amorphous calcium phosphate (ACP), tetracalcium phosphate (TTCP), calcium oxide (CaO) and calcium carbonate (CaCO 3 ); and said cement liquid is a phosphate-containing solution having a pH in the range of 0.1 to 12 and a phosphate concentration in the range of 0.1 to 3.0 moles/liter, and wherein said powder mixture and/or cement liquid comprises a soluble fluoride compound selected from the group consisting of sodium fluoride (NaF), potassium fluoride (KF), and hydrogen fluoride (HF). said powder mixture consists of: (i) dicalcium phosphate anhydrous (DCPA) and/or dicalcium phosphate dihydrate (DCPD); and (ii) at least one compound having a Ca/P molar ratio of 1.5 or higher, said at least one compound selected from the group consisting of alpha tricalcium phosphate (aTCP), beta tricalcium phosphate (βTCP), amorphous calcium phosphate (ACP), tetracalcium phosphate (TTCP), calcium oxide (CaO) and calcium carbonate (CaCO 3 ); and (i) dicalcium phosphate anhydrous (DCPA) and/or dicalcium phosphate dihydrate (DCPD); and (ii) at least one compound having a Ca/P molar ratio of 1.5 or higher, said at least one compound selected from the group consisting of alpha tricalcium phosphate (aTCP), beta tricalcium phosphate (βTCP), amorphous calcium phosphate (ACP), tetracalcium phosphate (TTCP), calcium oxide (CaO) and calcium carbonate (CaCO 3 ); and said cement liquid is a phosphate-containing solution having a pH in the range of 0.1 to 12 and a phosphate concentration in the range of 0.1 to 3.0 moles/liter,
Rotor having a rotor axis, and having a rotor disk that has a circumferential fastening shoulder having a support surface that faces toward a rotor axis and rotates about the rotor axis, and having a plurality of rotor components distributed around the circumference, which each have a retaining shoulder having a retaining surface forming a portion of a surface of revolution that is complementary to the support surface , wherein in each cross section perpendicular to the rotor axis the support surface has a support radius , and the retaining surface has a retaining radius , characterized in that the retaining radius corresponds to at least 0.99 times and maximally to 0.9995 times the support radius , wherein the rotor component has an aperture radially outside the retaining surface , which has a width of at least 0.25 times and maximally 0.75 times the width of the rotor component in the circumferential direction.
A cleaner comprising: a suction unit ; a main body that is connected with the suction unit and separates dust from air sucked through the suction unit ; and a handle unit that is connected to the main body , wherein the main body includes: a first body and a second body ; a sealing member for sealing a boundary between the first body and the second body ; characterized by : a support body that supports the sealing member and has an opening that communicates with the suction unit . a suction unit ; a main body that is connected with the suction unit and separates dust from air sucked through the suction unit ; and a handle unit that is connected to the main body , wherein the main body includes: a first body and a second body ; a sealing member for sealing a boundary between the first body and the second body ; characterized by : a support body that supports the sealing member and has an opening that communicates with the suction unit . a first body and a second body ; a sealing member for sealing a boundary between the first body and the second body ; characterized by : a support body that supports the sealing member and has an opening that communicates with the suction unit .
Electronic module, comprising: A plurality of computation units (110a, ., 110n) for computing a mathematical operation for a set of parameters, wherein each computation unit is designed to compute the mathematical operation with the set of parameters according to a computation method, and wherein the computation method differs in the case of at least two computation units from the plurality of computation units (110a, ., 110n), characterized by : a selection unit , which is designed to select one from the plurality of computation units (110a,...,110n) for the computation of the mathematical operation. A plurality of computation units (110a, ., 110n) for computing a mathematical operation for a set of parameters, wherein each computation unit is designed to compute the mathematical operation with the set of parameters according to a computation method, and wherein the computation method differs in the case of at least two computation units from the plurality of computation units (110a, ., 110n), characterized by : a selection unit , which is designed to select one from the plurality of computation units (110a,...,110n) for the computation of the mathematical operation.
An assembly comprising an arm , mounted movable in translation between an inlet opening and an outlet opening of a through passage of a body , and a control device for controlling said arm comprising a retaining member secured to said body and designed to adopt a first position wherein it acts on said arm 4) and holds it in an inactive position away from the outlet opening and a second position wherein it releases the arm , characterized in that the control device comprises a wire , secured to said body and said retaining member , made of a metal material with a shape suitable for retracting under the effect of a temperature rise and subsequently, to cause the movement of the retaining member to its second position, as well as means suitable for at least temporarily heating said wire , said body having an upper face , a lower face , an anterior face comprising the inlet opening and a posterior face comprising the outlet opening of the through passage , while the retaining member comprises a convex face and a concave face extended by at least one rod provided with a hook , and is mounted movable in translation along the anterior face of body between a position wherein the hook extends at least partially in front of the inlet opening of the through passage and a position wherein the hook is withdrawn relative to the inlet opening .
A light engine arranged to form an image visible from a viewing window, wherein the light engine comprises: a display device arranged to display a hologram of the image and spatially modulate light in accordance with the hologram, wherein the hologram is configured to angularly distribute spatially modulated light of the image in accordance with position of image content, such that angular channels of the spatially modulated light correspond with respective continuous regions of the image; a waveguide pupil expander arranged to receive the spatially modulated light and provide a plurality of different light propagation paths for the spatially modulated light from the display device to the viewing window; the light engine being characterized in further comprising a control device disposed between the waveguide pupil expander and the viewing window, wherein the control device comprises at least one aperture arranged such that a first viewing position within the viewing window receives a first channel of light spatially modulated by the hologram in accordance with a first region of the image and a second viewing position within the viewing window receives a second channel of light spatially modulated by the hologram in accordance with a second region of the image. a display device arranged to display a hologram of the image and spatially modulate light in accordance with the hologram, wherein the hologram is configured to angularly distribute spatially modulated light of the image in accordance with position of image content, such that angular channels of the spatially modulated light correspond with respective continuous regions of the image; a waveguide pupil expander arranged to receive the spatially modulated light and provide a plurality of different light propagation paths for the spatially modulated light from the display device to the viewing window; the light engine being characterized in further comprising a control device disposed between the waveguide pupil expander and the viewing window, wherein the control device comprises at least one aperture arranged such that a first viewing position within the viewing window receives a first channel of light spatially modulated by the hologram in accordance with a first region of the image and a second viewing position within the viewing window receives a second channel of light spatially modulated by the hologram in accordance with a second region of the image.
A method for reducing a carbon dioxide footprint associated with a production process, wherein the carbon dioxide footprint comprises at least an amount of carbon dioxide emitted during the production process, the method comprising: - (S1) obtaining, by a processing circuitry , a parameter indicative of a selected cutting feature for production by a cutting tool ; - (S2) obtaining, by the processing circuitry , a parameter indicative of a selected work-piece material for production by a cutting tool ; - (S3) determining, by the processing circuitry , a set of cutting tools for production based on the obtained parameters; and - (S4) determining, by the processing circuitry , a cutting tool for production from the determined set of cutting tools based on carbon dioxide emission information data associated with each cutting tool in the determined set of cutting tools , wherein the cutting tool for production is determined by comparing the carbon dioxide emission information data for each cutting tool in the set of tools for production, and selecting the cutting tool with the lowest total amount of carbon dioxide emitted during the production process and during the manufacturing and/or transport of the cutting tool . - (S1) obtaining, by a processing circuitry , a parameter indicative of a selected cutting feature for production by a cutting tool ; - (S2) obtaining, by the processing circuitry , a parameter indicative of a selected work-piece material for production by a cutting tool ; - (S3) determining, by the processing circuitry , a set of cutting tools for production based on the obtained parameters; and - (S4) determining, by the processing circuitry , a cutting tool for production from the determined set of cutting tools based on carbon dioxide emission information data associated with each cutting tool in the determined set of cutting tools , wherein the cutting tool for production is determined by comparing the carbon dioxide emission information data for each cutting tool in the set of tools for production, and selecting the cutting tool with the lowest total amount of carbon dioxide emitted during the production process and during the manufacturing and/or transport of the cutting tool .
Method for receiving data that is intended to be implemented on a bearer , said bearer forming part of a telecommunication network having a satellite component comprising at least one satellite , and a terrestrial component comprising at least one terrestrial station , said data being organized into a set of packets having an identifier, said telecommunication network comprising at least one said bearer, said method having, for each of said data packets, the steps of: a) reception of a data packet transmitted by said satellite and having an identifier, b) recovery of the identifier and verification of correct reception of said data packet, c) in the event of incorrect reception of the data packet, transmission of a negative acknowledgement message comprising the identifier of the packet to said terrestrial station, and d) reception of a data packet corresponding to said identifier that is transmitted by the terrestrial station. a) reception of a data packet transmitted by said satellite and having an identifier, b) recovery of the identifier and verification of correct reception of said data packet, c) in the event of incorrect reception of the data packet, transmission of a negative acknowledgement message comprising the identifier of the packet to said terrestrial station, and d) reception of a data packet corresponding to said identifier that is transmitted by the terrestrial station.
A circuit comprising: a first input port and at least one second input port (USB IN); an output port (V OUT ); a first half-bridge circuit having an input connected to the first input port, a high-side gate drive input , a low-side gate drive input , and an output ; at least a second half-bridge circuit having an input connected to the at least one second input port (DC IN), a high-side gate drive input , a low-side gate drive input , and an output ; an inductor (L) having one end connected to the output of each half-bridge circuit and another end connected to an output (V OUT ) of the circuit ; a switching signal generator connected to the high-side gate drive input and low-side gate drive input of each half-bridge circuit; characterized in a shorting switch (QS) connected between the high-side (Q H1 ) gate drive input of the first half-bridge circuit and the high-side gate drive input of the second half-bridge circuit (Q H2 ), and having an ON state wherein the high-side gate drive inputs of the first half-bridge circuit and the second half-bridge circuit are electrically connected and an OFF state wherein the high-side gate drive inputs of the first half-bridge circuit and the second half-bridge circuit are not electrically connected; and wherein the switching signal generator generates first switching signals for buck mode operation and the switching signal generator generates second switching signals for reverse boost mode operation, wherein the shorting switch is OFF during buck mode operation and the shorting switch is selectively ON during reverse boost mode operation. a first input port and at least one second input port (USB IN); an output port (V OUT ); a first half-bridge circuit having an input connected to the first input port, a high-side gate drive input , a low-side gate drive input , and an output ; at least a second half-bridge circuit having an input connected to the at least one second input port (DC IN), a high-side gate drive input , a low-side gate drive input , and an output ; an inductor (L) having one end connected to the output of each half-bridge circuit and another end connected to an output (V OUT ) of the circuit ; a switching signal generator connected to the high-side gate drive input and low-side gate drive input of each half-bridge circuit; characterized in a shorting switch (QS) connected between the high-side (Q H1 ) gate drive input of the first half-bridge circuit and the high-side gate drive input of the second half-bridge circuit (Q H2 ), and having an ON state wherein the high-side gate drive inputs of the first half-bridge circuit and the second half-bridge circuit are electrically connected and an OFF state wherein the high-side gate drive inputs of the first half-bridge circuit and the second half-bridge circuit are not electrically connected; and wherein the switching signal generator generates first switching signals for buck mode operation and the switching signal generator generates second switching signals for reverse boost mode operation, wherein the shorting switch is OFF during buck mode operation and the shorting switch is selectively ON during reverse boost mode operation.
A tape-shaped contact member for a switching electrical contact, comprising a tape-shaped contact material, wherein the tape-shaped contact member is provided with all the following matters defined as (a) to (d) (a) at least one wire-shaped brazing material is bonded to the tape-shaped contact material, (a') the tape-shaped contact material is Ag-based, (a") the brazing material includes an Ag-Cu alloy, (b) at least one projection including the brazing material and protruding from a surface of the contact material is formed in a cross-sectional shape, (c) a diffusion region containing a metal component forming the brazing material is formed along an interface with the brazing material inside the contact material; and (d) the diffusion region has a thickness of 2 μm or more and 10 μm or less. (a) at least one wire-shaped brazing material is bonded to the tape-shaped contact material, (a') the tape-shaped contact material is Ag-based, (a") the brazing material includes an Ag-Cu alloy, (a') the tape-shaped contact material is Ag-based, (a") the brazing material includes an Ag-Cu alloy, (b) at least one projection including the brazing material and protruding from a surface of the contact material is formed in a cross-sectional shape, (c) a diffusion region containing a metal component forming the brazing material is formed along an interface with the brazing material inside the contact material; and (d) the diffusion region has a thickness of 2 μm or more and 10 μm or less.
An anhydrous connective tissue regenerative material, preferably a bone, dentin or pulp regenerative material, comprising: - a porous polymer matrix having interconnected pores; and - calcium silicate particles; wherein: said polymer matrix is anhydrous; said calcium silicate particles are non-hydrated; said non-hydrated calcium silicate particles have a d 50 granulometry ranging from 0.05 μm to 50 μm; and said non-hydrated calcium silicate particles being coated on the inside walls of the pores of the matrix. - a porous polymer matrix having interconnected pores; and - calcium silicate particles; said polymer matrix is anhydrous; said calcium silicate particles are non-hydrated; said non-hydrated calcium silicate particles have a d 50 granulometry ranging from 0.05 μm to 50 μm; and said non-hydrated calcium silicate particles being coated on the inside walls of the pores of the matrix.