mhurhangee/patent-ind-claim-en huggingface dataset:
A projected capacitive touch switch panel for detecting a touch position on a touch screen spread out along an X direction and a Y direction, wherein: the projected capacitive touch switch panel comprises a glass substrate having a sensor unit for performing detection along the X direction, and a glass substrate having a sensor unit for performing detection along the Y direction, the two glass substrates being laminated, and each of the sensor units being sandwiched facing each other between the glass substrates ; each of the sensor units has a sensor electrode formed using sputtering or vacuum deposition, the sensor electrode comprising an aluminum thin film having a thickness of 500 to 5000 nm, and a blackened film laminated on at least part of the aluminum thin film, the blackened film comprising a mixture of molybdenum and aluminum oxide; one surface of one of the glass substrates constitutes a touch surface, and in the sensor unit of the aforementioned glass substrate , the blackened film is formed on the aforementioned glass substrate on the opposite surface from the touch surface, and the aluminum thin film is formed on the blackened film; and in the sensor unit of the other glass substrate , the aluminum thin film is formed on the surface of the glass substrate, and the blackened film is formed on the aluminum thin film. the projected capacitive touch switch panel comprises a glass substrate having a sensor unit for performing detection along the X direction, and a glass substrate having a sensor unit for performing detection along the Y direction, the two glass substrates being laminated, and each of the sensor units being sandwiched facing each other between the glass substrates ; each of the sensor units has a sensor electrode formed using sputtering or vacuum deposition, the sensor electrode comprising an aluminum thin film having a thickness of 500 to 5000 nm, and a blackened film laminated on at least part of the aluminum thin film, the blackened film comprising a mixture of molybdenum and aluminum oxide; one surface of one of the glass substrates constitutes a touch surface, and in the sensor unit of the aforementioned glass substrate , the blackened film is formed on the aforementioned glass substrate on the opposite surface from the touch surface, and the aluminum thin film is formed on the blackened film; and in the sensor unit of the other glass substrate , the aluminum thin film is formed on the surface of the glass substrate, and the blackened film is formed on the aluminum thin film.
A system for cutting vegetable products, comprising: a transport system having an outlet ; a plurality of vegetable cutting machines ; a collection system , disposed downstream of the vegetable cutting machines , configured to collect the vegetables after cutting; and characterized by a cutting machine transport device , the plurality of vegetable cutting machines being mounted on the cutting machine transport device , the cutting machine transport device being configured to selectively move one of the plurality of vegetable cutting machines into communication with the outlet 264 of the transport system . a transport system having an outlet ; a plurality of vegetable cutting machines ; a collection system , disposed downstream of the vegetable cutting machines , configured to collect the vegetables after cutting; and characterized by a cutting machine transport device , the plurality of vegetable cutting machines being mounted on the cutting machine transport device , the cutting machine transport device being configured to selectively move one of the plurality of vegetable cutting machines into communication with the outlet 264 of the transport system .
A user device configured to manage outside connections, the user device comprising: a processor configured to implement a connection manager , wherein the connection manager is configured to: receive an incoming connection alert associated with an incoming connection; determine when the incoming connection is answered at one of a set of one or more associated user devices , wherein each associated user device of the set of one or more associated user devices i) is capable of answering the incoming connection, and ii) is registered with a common user account at a network-accessible server; generate a silencing command based on the determination; and transmit the silencing command to the set of one or more associated user devices using a first mode of communication, the silencing command causing the set of one or more associated user devices to stop providing alerts for the incoming connection, wherein the connection manager is further configured to transmit the silencing command to the set of one or more associated user devices using a second mode of communication that is different from the first mode of communication. receive an incoming connection alert associated with an incoming connection; determine when the incoming connection is answered at one of a set of one or more associated user devices , wherein each associated user device of the set of one or more associated user devices i) is capable of answering the incoming connection, and ii) is registered with a common user account at a network-accessible server; generate a silencing command based on the determination; and transmit the silencing command to the set of one or more associated user devices using a first mode of communication, the silencing command causing the set of one or more associated user devices to stop providing alerts for the incoming connection, wherein the connection manager is further configured to transmit the silencing command to the set of one or more associated user devices using a second mode of communication that is different from the first mode of communication.
A composite article comprising a laminate structure of at least first and second fiber layers , each of the first and second fiber layers including a network of primary reinforcement fibers dispersed in a matrix , the first and second fiber layers being bonded to each other along an interface of the matrices , the matrices including a concentration of secondary reinforcement particles locally at the interface , characterized in that the secondary reinforcement particles include nanoparticles.
An apparatus comprising: an image source ; an exit pupil configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source ; and a plurality of grating areas between the image source and the exit pupil wherein the plurality of grating areas are configured to direct beams of light from the image source to the exit pupil ; and wherein the plurality of grating areas comprise an in-coupling grating area and an out-coupling grating area ; and the surface area of the in-coupling grating area is larger than an exit pupil of the beams of light when the beams of light are incident on the in-coupling grating area ; wherein the image source is configured to be moved relative to the plurality of grating areas to control the position of the exit pupil relative to the eye of the user, characterized in that the out-coupling grating area is configured so that the exit pupil of the apparatus only comprises a portion of the out-coupling grating area. an image source ; an exit pupil configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source ; and a plurality of grating areas between the image source and the exit pupil wherein the plurality of grating areas are configured to direct beams of light from the image source to the exit pupil ; and wherein the plurality of grating areas comprise an in-coupling grating area and an out-coupling grating area ; and the surface area of the in-coupling grating area is larger than an exit pupil of the beams of light when the beams of light are incident on the in-coupling grating area ; wherein the image source is configured to be moved relative to the plurality of grating areas to control the position of the exit pupil relative to the eye of the user, characterized in that the out-coupling grating area is configured so that the exit pupil of the apparatus only comprises a portion of the out-coupling grating area.
A heat exchanger , comprising: a casing configured to direct a working fluid therethrough; at least one heat exchanger (HE) section in the casing , each HE section including a pair of spaced supports , each spaced support including: an upstream support and a downstream support , wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports ; at least one second cross-support coupled to and extending between the respective upstream and downstream supports , each second cross-support vertically distanced from an adjacent first or another second cross-support thereabove; and a plurality of tube positioners suspended from each of the first and at least one second cross-support , each tube positioner positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing . a casing configured to direct a working fluid therethrough; at least one heat exchanger (HE) section in the casing , each HE section including a pair of spaced supports , each spaced support including: an upstream support and a downstream support , wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports ; at least one second cross-support coupled to and extending between the respective upstream and downstream supports , each second cross-support vertically distanced from an adjacent first or another second cross-support thereabove; and a plurality of tube positioners suspended from each of the first and at least one second cross-support , each tube positioner positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing . an upstream support and a downstream support , wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports ; at least one second cross-support coupled to and extending between the respective upstream and downstream supports , each second cross-support vertically distanced from an adjacent first or another second cross-support thereabove; and a plurality of tube positioners suspended from each of the first and at least one second cross-support , each tube positioner positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing .
A method of performing nucleic acid sequence determination, the method comprising: (a) providing: (i) a substrate comprising a surface; (ii) at least one hydrophilic polymer coating layer on the surface, wherein said at least one hydrophilic polymer coating layer comprises polyethylene glycol (PEG); and (iii) a plurality of oligonucleotide molecules attached to the at least one hydrophilic polymer coating layer, wherein the plurality of oligonucleotide molecules is present with a surface density of at least 1,000 molecules/μm 2 ; (b) contacting a plurality of sample nucleic acid molecules with the plurality of oligonucleotide molecules attached to the at least one hydrophilic polymer coating layer; (c) amplifying the plurality of sample nucleic acid molecules; and (d) performing at least a nucleotide binding reaction or a nucleotide incorporation reaction with a nucleotide that is detectable and a sample nucleic acid molecule of the plurality of sample nucleic acid molecules. (a) providing: (i) a substrate comprising a surface; (ii) at least one hydrophilic polymer coating layer on the surface, wherein said at least one hydrophilic polymer coating layer comprises polyethylene glycol (PEG); and (iii) a plurality of oligonucleotide molecules attached to the at least one hydrophilic polymer coating layer, wherein the plurality of oligonucleotide molecules is present with a surface density of at least 1,000 molecules/μm 2 ; (i) a substrate comprising a surface; (ii) at least one hydrophilic polymer coating layer on the surface, wherein said at least one hydrophilic polymer coating layer comprises polyethylene glycol (PEG); and (iii) a plurality of oligonucleotide molecules attached to the at least one hydrophilic polymer coating layer, wherein the plurality of oligonucleotide molecules is present with a surface density of at least 1,000 molecules/μm 2 ; (b) contacting a plurality of sample nucleic acid molecules with the plurality of oligonucleotide molecules attached to the at least one hydrophilic polymer coating layer; (c) amplifying the plurality of sample nucleic acid molecules; and (d) performing at least a nucleotide binding reaction or a nucleotide incorporation reaction with a nucleotide that is detectable and a sample nucleic acid molecule of the plurality of sample nucleic acid molecules.
A table top structure for waste disposal that comprises - a table top comprising - a top surface , - a bottom surface, and - an aperture for waste disposal, - a first and second edge arranged respectively on a first and second side of said aperture below said top surface of the table top , - a first and second chamfer edge arranged respectively in a first and second end of the aperture , - a movable cover comprising - a top surface, and - a bottom surface, wherein said movable cover being arranged to be movable along said first and said second edge of said table top, and - in a first position the movable cover is arranged to cover the aperture, in the first position the bottom surface of the movable cover is arranged below the top surface of the table top, and - in a second position the movable cover is arranged to open the aperture for waste disposal through the aperture, in the second position at least part of the bottom surface of the movable cover is arranged above the top surface of the table top, and wherein said first and second chamfer edge are arranged to guide said movable cover above the top surface of the table top (102, when the movable cover is moved from said first position. - a table top comprising - a top surface , - a bottom surface, and - an aperture for waste disposal, - a first and second edge arranged respectively on a first and second side of said aperture below said top surface of the table top , - a first and second chamfer edge arranged respectively in a first and second end of the aperture , - a top surface , - a bottom surface, and - an aperture for waste disposal, - a first and second edge arranged respectively on a first and second side of said aperture below said top surface of the table top , - a first and second chamfer edge arranged respectively in a first and second end of the aperture , - a movable cover comprising - a top surface, and - a bottom surface, - a top surface, and - a bottom surface, wherein said movable cover being arranged to be movable along said first and said second edge of said table top, and - in a first position the movable cover is arranged to cover the aperture, in the first position the bottom surface of the movable cover is arranged below the top surface of the table top, and - in a second position the movable cover is arranged to open the aperture for waste disposal through the aperture, in the second position at least part of the bottom surface of the movable cover is arranged above the top surface of the table top, and - in a first position the movable cover is arranged to cover the aperture, in the first position the bottom surface of the movable cover is arranged below the top surface of the table top, and - in a second position the movable cover is arranged to open the aperture for waste disposal through the aperture, in the second position at least part of the bottom surface of the movable cover is arranged above the top surface of the table top, and wherein said first and second chamfer edge are arranged to guide said movable cover above the top surface of the table top (102, when the movable cover is moved from said first position.
A manufacturing method for a plurality of photovoltaic cells comprising the steps of: obtaining (S82) a plurality of photovoltaic cells (8121-8124), placed at a first distance from each other; attaching (S13) a stretching material to the plurality of photovoltaic cells; and stretching (S21, S61, S71) the stretching material such that the plurality of photovoltaic cells results at a second distance from each other, wherein the second distance is greater that the first distance; characterized in further comprising the steps of: positioning (S22) the plurality of photovoltaic cells onto a target substrate , while the cells are still attached to the stretching material, after the step of stretching; and assembling (S22) the plurality of photovoltaic cells to the target substrate, after the step of positioning; and removing (S23) the stretched material from the plurality of photovoltaic cells, after the step of positioning, and before or after the step of assembling. obtaining (S82) a plurality of photovoltaic cells (8121-8124), placed at a first distance from each other; attaching (S13) a stretching material to the plurality of photovoltaic cells; and stretching (S21, S61, S71) the stretching material such that the plurality of photovoltaic cells results at a second distance from each other, wherein the second distance is greater that the first distance; characterized in further comprising the steps of: positioning (S22) the plurality of photovoltaic cells onto a target substrate , while the cells are still attached to the stretching material, after the step of stretching; and assembling (S22) the plurality of photovoltaic cells to the target substrate, after the step of positioning; and removing (S23) the stretched material from the plurality of photovoltaic cells, after the step of positioning, and before or after the step of assembling. positioning (S22) the plurality of photovoltaic cells onto a target substrate , while the cells are still attached to the stretching material, after the step of stretching; and assembling (S22) the plurality of photovoltaic cells to the target substrate, after the step of positioning; and removing (S23) the stretched material from the plurality of photovoltaic cells, after the step of positioning, and before or after the step of assembling.
A method for communication, the method comprising: in a transimpedance amplifier, TIA, circuit comprising a first TIA with a first configurable feedback impedance comprising a configurable array of resistors, a second TIA with a second configurable feedback impedance, and a third TIA with a third configurable feedback impedance, wherein the second TIA is a replica of the third TIA, and a control loop, the control loop comprising a gain stage with inputs coupled to outputs of the first and second TIAs and an output of the gain stage coupled to the second and third configurable feedback impedances: configuring a gain level of the first TIA by configuring the configurable array of resistors of the first configurable feedback impedance; generating a reference current; applying the reference current to an input of the first TIA and configuring a gain level of the second and third TIAs by configuring the reference current applied to an input of the first TIA, where the gain stage generates a control voltage (Vg) that configures the second and third configurable feedback impedance of the second and third TIA respectively; and amplifying a received electrical signal to generate an output voltage utilizing the third TIA. generating a reference current; applying the reference current to an input of the first TIA and configuring a gain level of the second and third TIAs by configuring the reference current applied to an input of the first TIA, where the gain stage generates a control voltage (Vg) that configures the second and third configurable feedback impedance of the second and third TIA respectively; and amplifying a received electrical signal to generate an output voltage utilizing the third TIA.
A compound for use in the treatment of hyperphosphatemia in a patient in need thereof, wherein the compound is substantially active in the gastrointestinal tract to inhibit transport of phosphate ions (Pi), and wherein the compound is a dopamine D1 receptor agonist or a pharmaceutically acceptable salt thereof.
Gripper installation for simultaneously gripping a plurality of elongate flexible items, in particular sausages , having a plurality of gripper portions that are disposed so as to be mutually parallel, characterized in that each gripper portion has two mutually spaced-apart finger pairs , wherein the fingers of each finger pair grip one of the items at opposite sides and for gripping the item are capable of being simultaneously converged, wherein the fingers are pivotable about a vertical pivot axis and capable of being moved from above between the items, and capable of being moved laterally against the sides of the items by pivoting about the pivot axes, and wherein the gripper portions are capable of being simultaneously activated.
A method performed by a user plane function, UPF, node (130c-1) in a wireless communication system, comprising: receiving , from a session management function, SMF, node , a message including information on a rule, wherein the information on the rule includes a packet detection rule, PDR, and a forwarding action rule, FAR; receiving , from an entity associated with the UPF node, at least one packet comprising user traffic; detecting the at least one packet comprising user traffic based on the PDR which includes information for matching the at least one packet with a flow; and in case that the PDR does not include information for matching the at least one packet with the flow, transmitting , to an another UPF node (130c-2), the at least one detected packet, wherein the another UPF node is selected based on the FAR. receiving , from a session management function, SMF, node , a message including information on a rule, wherein the information on the rule includes a packet detection rule, PDR, and a forwarding action rule, FAR; receiving , from an entity associated with the UPF node, at least one packet comprising user traffic; detecting the at least one packet comprising user traffic based on the PDR which includes information for matching the at least one packet with a flow; and in case that the PDR does not include information for matching the at least one packet with the flow, transmitting , to an another UPF node (130c-2), the at least one detected packet, wherein the another UPF node is selected based on the FAR.