mhurhangee/patent-ind-claim-en huggingface dataset:
An inkjet printer configured to perform printing on an outer surface of a print object (W) in three-dimensional shape, the inkjet printer comprising: a retainer , configured to retain the print object (W); a rough position adjuster , configured to change a distance in a vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and a carriage that is to perform printing on the outer surface (WS); characterized by a transporter , including a fine position adjuster capable of changing the distance in the vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and the carriage ; and a controller , configured to control the fine position adjuster so that the distance in the vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and the carriage becomes a predetermined distance during the printing by the carriage . a retainer , configured to retain the print object (W); a rough position adjuster , configured to change a distance in a vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and a carriage that is to perform printing on the outer surface (WS); characterized by a transporter , including a fine position adjuster capable of changing the distance in the vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and the carriage ; and a controller , configured to control the fine position adjuster so that the distance in the vertical direction between the outer surface (WS) of the print object (W) retained by the retainer and the carriage becomes a predetermined distance during the printing by the carriage .
Device for beaming of light, the device comprising a planar optical antenna structure, wherein the planar optical antenna structure comprises from top to bottom in the following order at least a collection medium for collecting light from a director layer , a director layer for obtaining directionality of the beamed light, a host medium , a reflector layer , wherein a dipole light emitter is positioned in the host medium at a distance d 1 away from the reflector layer , wherein the director layer is positioned in the radiation direction of the dipole light emitter , wherein the director layer is positioned at a distance d 2 away from the dipole light emitter , characterized in that between the reflector layer and the host medium a first intermediate layer is provided and between the host medium and the director layer a second intermediate layer is provided. wherein a dipole light emitter is positioned in the host medium at a distance d 1 away from the reflector layer , wherein the director layer is positioned in the radiation direction of the dipole light emitter , wherein the director layer is positioned at a distance d 2 away from the dipole light emitter , characterized in that between the reflector layer and the host medium a first intermediate layer is provided and between the host medium and the director layer a second intermediate layer is provided.
A method for executing an application at a mobile terminal , the method comprising: receiving execution data from an electronic device communicating with the mobile terminal over a Wireless Local Area Network, WLAN, the execution data comprising a phone number and a command for executing a function of the mobile terminal based on the phone number; and executing the function of the mobile terminal with respect to the command based on the phone number included in the received execution data, wherein the function of the mobile terminal corresponds to an item selected by a user input from among a plurality of items displayed on the screen of the electronic device , and wherein the plurality of items corresponds to a plurality of functions of the mobile terminal , respectively, characterised in that the phone number is identified by a user selection from among multiple contents in a web browser application displayed on a screen of the electronic device. receiving execution data from an electronic device communicating with the mobile terminal over a Wireless Local Area Network, WLAN, the execution data comprising a phone number and a command for executing a function of the mobile terminal based on the phone number; and executing the function of the mobile terminal with respect to the command based on the phone number included in the received execution data, wherein the function of the mobile terminal corresponds to an item selected by a user input from among a plurality of items displayed on the screen of the electronic device , and wherein the plurality of items corresponds to a plurality of functions of the mobile terminal , respectively,
A humidification and air cleaning apparatus comprising: a water tank to store water; a watering housing disposed in the water tank to spray water stored in the water tank ; an air wash inlet disposed in the water tank to receive external air into the water tank ; and an air discharge port disposed in the water tank to discharge internal air out of the water tank , wherein the discharge port is disposed over the air wash inlet ; an inner main stream (IS) is flowing inside the water tank and formed in a vertical direction, an outer main stream (OS) is flowing outside the water tank and formed in a vertical direction, wherein the inner and the outer main streams (IS, OS) flow from a lower side to an upper side and then the inner main stream is discharged to the discharge port ; a connect stream (CS) connecting the outer main stream (OS) and the inner main stream (IS), wherein air having passed the air wash inlet forms the inner main stream (IS) inside the water tank , wherein the inner main stream (IS) passes the sprayed water (S3, S4) and is output via the discharge port , wherein the air wash inlet forms the connect stream (CS), characterized in that the humidification and air cleaning apparatus further comprises a visual body forming at least a portion of the water tank and formed of a transparent material, and in that the connect stream (CS) forms an angle of 0 to about 90 degrees with the flow direction of the outer main stream (OS). a water tank to store water; a watering housing disposed in the water tank to spray water stored in the water tank ; an air wash inlet disposed in the water tank to receive external air into the water tank ; and an air discharge port disposed in the water tank to discharge internal air out of the water tank , wherein the discharge port is disposed over the air wash inlet ; an inner main stream (IS) is flowing inside the water tank and formed in a vertical direction, an outer main stream (OS) is flowing outside the water tank and formed in a vertical direction, wherein the inner and the outer main streams (IS, OS) flow from a lower side to an upper side and then the inner main stream is discharged to the discharge port ; a connect stream (CS) connecting the outer main stream (OS) and the inner main stream (IS), wherein air having passed the air wash inlet forms the inner main stream (IS) inside the water tank , wherein the inner main stream (IS) passes the sprayed water (S3, S4) and is output via the discharge port , wherein the air wash inlet forms the connect stream (CS), characterized in that the humidification and air cleaning apparatus further comprises a visual body forming at least a portion of the water tank and formed of a transparent material, and in that the connect stream (CS) forms an angle of 0 to about 90 degrees with the flow direction of the outer main stream (OS).
A chemically sensitive sensor for detecting volatile organic compounds (VOCs), the sensor comprising: a substantially planar substrate having a top surface and a bottom surface , wherein the substrate is made of an electrically insulating material; an electrode array being disposed on the top surface of said substrate; a micro-barrier comprising an inner face and an outer face and being disposed on the top surface of the substrate and surrounding the electrode array; and a sensing layer comprising a multiplicity of core-shell particles in close-packed orientation, the particles comprising a metal nanoparticle (MNP) core and an organic ligand shell, wherein the MNP core has a mean particle size below 15 nm, the sensing layer is in electric contact with said electrode array, and the sensing layer is deposited onto the substrate as a drop having essentially the same height as the height of the micro-barrier and the shape of said sensing layer is confined by the micro-barrier. a substantially planar substrate having a top surface and a bottom surface , wherein the substrate is made of an electrically insulating material; an electrode array being disposed on the top surface of said substrate; a micro-barrier comprising an inner face and an outer face and being disposed on the top surface of the substrate and surrounding the electrode array; and a sensing layer comprising a multiplicity of core-shell particles in close-packed orientation, the particles comprising a metal nanoparticle (MNP) core and an organic ligand shell, wherein the MNP core has a mean particle size below 15 nm, the sensing layer is in electric contact with said electrode array, and the sensing layer is deposited onto the substrate as a drop having essentially the same height as the height of the micro-barrier and the shape of said sensing layer is confined by the micro-barrier.
Cable conduit for routing a cable strand between a first element and a second element , having an insertion part , which comprises a tubular routing element and which can be arranged on the first element , and a tubular receiving part , which can be arranged on the second element , wherein the routing element of the insertion part is axially moveably arranged in the receiving part , wherein the insertion part and the receiving part comprise at least one flange element characterized in that a flange element comprises an inner abutment element and an out abutment element , wherein the insertion part and the receiving part are implemented in one piece and are made of elastomer. wherein the routing element of the insertion part is axially moveably arranged in the receiving part , wherein the insertion part and the receiving part comprise at least one flange element characterized in that a flange element comprises an inner abutment element and an out abutment element , wherein the insertion part and the receiving part are implemented in one piece and are made of elastomer.
A circuit board module , comprising: a circuit board body ; a connector , disposed on the circuit board body and comprising a base and a rotating button rotatably disposed on the base ; a press button , located on the circuit board body and away from the connector ; a bracket , disposed on the circuit board body and comprising a first limiting portion ; and a linkage , located between the rotating button and the press button , and comprising a second limiting portion corresponding to the first limiting portion , a first segment , and a second segment linked to the first segment , wherein the first segment extends along a first axis (A1) and is linked to the rotating button , the second segment extends along a second axis (A2) and is linked to the press button , and one of the second limiting portion and the first limiting portion extends along the first axis (A1), so that the first segment is movably disposed on the bracket along the first axis (A1), wherein in response to the press button being pressed, the second segment of the linkage is driven, and the first segment is linked to move along the first axis (A1) and pull the rotating button , and the rotating button is pulled to rotate relative to the base , wherein the press button is located on an edge of the circuit board body , the press button is closer to the edge of the circuit board body than the rotating button is, the first axis (A1) and the second axis (A2) are perpendicular to a normal line of the circuit board body so that in a direction parallel to a top surface of the circuit board body , the first segment of the linkage extends along the first axis (A1) and the second segment of the linkage extends along the second axis (A2). a circuit board body ; a connector , disposed on the circuit board body and comprising a base and a rotating button rotatably disposed on the base ; a press button , located on the circuit board body and away from the connector ; a bracket , disposed on the circuit board body and comprising a first limiting portion ; and a linkage , located between the rotating button and the press button , and comprising a second limiting portion corresponding to the first limiting portion , a first segment , and a second segment linked to the first segment , wherein the first segment extends along a first axis (A1) and is linked to the rotating button , the second segment extends along a second axis (A2) and is linked to the press button , and one of the second limiting portion and the first limiting portion extends along the first axis (A1), so that the first segment is movably disposed on the bracket along the first axis (A1), wherein in response to the press button being pressed, the second segment of the linkage is driven, and the first segment is linked to move along the first axis (A1) and pull the rotating button , and the rotating button is pulled to rotate relative to the base , wherein the press button is located on an edge of the circuit board body ,
A fluid control valve for a shower system, the fluid control valve comprising: a valve body including a chamber and a reservoir ; a piston slidably coupled to the valve body , wherein the piston fluidly separates the chamber from the reservoir ; wherein the chamber includes a compressible gas; and wherein the piston is configured to slidably translate within the valve body to compress the compressible gas in response to a water pressure change in the shower system, characterized in that the fluid control valve body further includes a vent configured to control an amount of compressible gas in the chamber . a valve body including a chamber and a reservoir ; a piston slidably coupled to the valve body , wherein the piston fluidly separates the chamber from the reservoir ; wherein the chamber includes a compressible gas; and wherein the piston is configured to slidably translate within the valve body to compress the compressible gas in response to a water pressure change in the shower system, characterized in that the fluid control valve body further includes a vent configured to control an amount of compressible gas in the chamber .
A solid pharmaceutical composition in the form of an immediate release tablet, comprising: i. pregabalin particles having a particle size distribution with a D from 100 μm to 420 μm, and/or pregabalin particles having a particle size distribution with a D from 300 μm to 850 μm, both measured by volume, ii. at least one filler, and iii. at least one lubricant, wherein the immediate release tablet is prepared by direct compression, and wherein the filler (ii) is a cellulose derivative. i. pregabalin particles having a particle size distribution with a D from 100 μm to 420 μm, and/or pregabalin particles having a particle size distribution with a D from 300 μm to 850 μm, both measured by volume, ii. at least one filler, and iii. at least one lubricant,
A pectate lyase variant, wherein said variant has pectate lyase activity and comprises an alteration at one or more positions selected from the group consisting of: 250, 229+250, 250+257, 48+250, 250+356, 49+99+124+176+229+250+257+325+356, 49+99+176+229+250+257+325+356, 49+99+108+124+176+229+250+257+325+356, 48+49+99+176+250+257+325+356, 49+99+176+250+325+257+356, and 229+250+356, wherein each position corresponds to a position of the amino acid sequence of the pectate lyase having the amino acid sequence of SEQ ID NO:1, and wherein the variant has at least 90%, but less than 100% identity to the amino acid sequence of SEQ ID NO:1, and has improved stability in detergent or improved thermal stability compared to a parent enzyme of SEQ ID NO: 1.
Data carrier with a base body , a first security element and a lacquer layer consisting of lacquer material arranged on a partial area of a first outer side of the base body , wherein the first security element shows an overall image formed from a first partial image and from a second partial image arranged in the base body , wherein a perforation pattern formed from a plurality of through holes extending at least partially over a total thickness of the base body is introduced into the base body by means of laser radiation, wherein the lacquer layer forms an overlapping area with the first security element and at least a subset of the plurality of through holes , viewed from a direction of an observer.
A stabilized solid composition comprising: a urea solidification matrix; an acid; and at least one additional active component comprising a surfactant, polymer, and/or additional solids, wherein the urea and the acid are in a preformed solid complex in a molar ratio from 1:3 to 3:1, wherein the acid is citric acid, glutamic acid, sulfamic acid, malic acid, maleic acid, tartaric acid, lactic acid, aspartic acid, succinic acid, adipic acid, hydroxyacetic acid, formic acid, acetic acid, propionic acid, butyric acid, valeric acid, caproic acid, gluconic acid, itaconic acid, trichloroacetic acid, benzoic acid, oxalic acid, malonic acid, glutaric acid, fumaric acid, and/or terephthalic acids; and a use solution has a pH between 2 to 6. a urea solidification matrix; an acid; and at least one additional active component comprising a surfactant, polymer, and/or additional solids, wherein the urea and the acid are in a preformed solid complex in a molar ratio from 1:3 to 3:1, wherein the acid is citric acid, glutamic acid, sulfamic acid, malic acid, maleic acid, tartaric acid, lactic acid, aspartic acid, succinic acid, adipic acid, hydroxyacetic acid, formic acid, acetic acid, propionic acid, butyric acid, valeric acid, caproic acid, gluconic acid, itaconic acid, trichloroacetic acid, benzoic acid, oxalic acid, malonic acid, glutaric acid, fumaric acid, and/or terephthalic acids; and a use solution has a pH between 2 to 6.
An antenna coil including a core member having an X-axis leg section protruding in the X-axis direction from an intersection of the core member and having a Y-axis leg section protruding in the Y-axis direction from the intersection, and an X-axis winding wire wound around the outer periphery of the X-axis leg section , and a Y-axis winding wire wound around the outer periphery of the Y-axis leg section , wherein the core member is formed into a cross shape in which the X-axis leg section and the Y-axis leg section are made to cross each other at the midpoint of the X-axis leg section and the Y-axis leg section , wherein the X-axis leg section forms X-axis winding frame sections provided on both sides of the midpoint of the X-axis leg section ; and wherein the Y-axis leg section forms Y-axis winding frame sections provided on both sides of the midpoint of the Y-axis leg section ; characterized in that each of the X-axis winding frame sections and the Y-axis winding frame sections comprises an intermediate flange section so that each of the winding frame sections is divided by the intermediate flange section into a plurality of winding frame sections. wherein the core member is formed into a cross shape in which the X-axis leg section and the Y-axis leg section are made to cross each other at the midpoint of the X-axis leg section and the Y-axis leg section , wherein the X-axis leg section forms X-axis winding frame sections provided on both sides of the midpoint of the X-axis leg section ; and wherein the Y-axis leg section forms Y-axis winding frame sections provided on both sides of the midpoint of the Y-axis leg section ; characterized in that each of the X-axis winding frame sections and the Y-axis winding frame sections comprises an intermediate flange section so that each of the winding frame sections is divided by the intermediate flange section into a plurality of winding frame sections.
An image reading apparatus comprising: an identification information reading unit configured to acquire identification information by reading the identification information from a section to be read at which individual identification information able to identify an individual carrier sheet is recorded for each individual carrier sheet (CS) and which is provided at a joining section of the carrier sheet in which two transparent sheets for pinching an original document (D) are joined at a peripheral edge portion; a processor configured to perform a process with is associated with the identification information read by the identification information reading unit; a transport unit configured to transport the carrier sheet; and a reading unit configured to read an original document pinched by the carrier sheets on a transport path, wherein the processor is configured to count the accumulated number of transports of the carrier sheets for each information item of identification information read by the identification information reading unit, as the process associated with the identification information. an identification information reading unit configured to acquire identification information by reading the identification information from a section to be read at which individual identification information able to identify an individual carrier sheet is recorded for each individual carrier sheet (CS) and which is provided at a joining section of the carrier sheet in which two transparent sheets for pinching an original document (D) are joined at a peripheral edge portion; a processor configured to perform a process with is associated with the identification information read by the identification information reading unit; a transport unit configured to transport the carrier sheet; and a reading unit configured to read an original document pinched by the carrier sheets on a transport path, wherein the processor is configured to count the accumulated number of transports of the carrier sheets for each information item of identification information read by the identification information reading unit, as the process associated with the identification information.
A braided stent comprising: a plurality of wires having first and second ends interbraided in a braided pattern to form a tubular stent having opposed atraumatic first and second open ends with each open end having a circumference; wherein said first and second ends of the plurality of wires are disposed at said second stent open end and said plurality of wires are looped at said second stent open end ; wherein two of said plurality of wires are formed into a repositioning and/or retrieval loop having an elongated portion circumferentially disposed at said first stent open end ; and wherein said repositioning and/or retrieval loop comprises first and second sections which run adjacent to each other prior to crossing to permit grabbing both sections simultaneously by a practitioner. a plurality of wires having first and second ends interbraided in a braided pattern to form a tubular stent having opposed atraumatic first and second open ends with each open end having a circumference; wherein said first and second ends of the plurality of wires are disposed at said second stent open end and said plurality of wires are looped at said second stent open end ; wherein two of said plurality of wires are formed into a repositioning and/or retrieval loop having an elongated portion circumferentially disposed at said first stent open end ; and wherein said repositioning and/or retrieval loop comprises first and second sections which run adjacent to each other prior to crossing to permit grabbing both sections simultaneously by a practitioner.