mhurhangee/patent-ind-claim-en huggingface dataset:
A lid material for packages which is intended to be bonded to a package substrate , the lid material comprising: a glass member including a bonding portion provided in a planar frame shape and a light transmitting portion provided inside the bonding portion ; one or more metallized layers formed in a frame shape at the bonding portion of the glass member ; and one or more Au-Sn layers in a state of having been_reflowed which are provided on the corresponding metallized layers and have a frame shape having a width of 250 μm or less characterized in that the frame shape of the one or more Au-Sn layers has one or more corner portions , and a maximum width of the corner portion is smaller than the width of the frame shape in a part excluding the corner portions of the Au-Sn layer , the maximum width of the corner portion being the maximum dimension in the direction intersecting the circumferential direction of the frame shape. a glass member including a bonding portion provided in a planar frame shape and a light transmitting portion provided inside the bonding portion ; one or more metallized layers formed in a frame shape at the bonding portion of the glass member ; and one or more Au-Sn layers in a state of having been_reflowed which are provided on the corresponding metallized layers and have a frame shape having a width of 250 μm or less characterized in that the frame shape of the one or more Au-Sn layers has one or more corner portions , and a maximum width of the corner portion is smaller than the width of the frame shape in a part excluding the corner portions of the Au-Sn layer , the maximum width of the corner portion being the maximum dimension in the direction intersecting the circumferential direction of the frame shape.
Method for producing cement, having at least the following steps of: - thermally treating material in a furnace and - cooling the material in an inert atmosphere in a cooling device , characterized in that the material, following the inert cooling, is classified into at least two grain sizes, coarse material and fine material, in a classifying device , and wherein the fine material is cooled separately from the coarse material following the classification. - thermally treating material in a furnace and - cooling the material in an inert atmosphere in a cooling device , characterized in that the material, following the inert cooling, is classified into at least two grain sizes, coarse material and fine material, in a classifying device , and wherein the fine material is cooled separately from the coarse material following the classification.
Headlamp for a motor vehicle, comprising: - a plurality of light modules ; - a cooling air duct (8; 108) for the light modules , with at least one inlet (16, 18; 116) for an air flow from one or more fans (10, 12; 110), a plurality of air outlets (20 1 , 20 2 , 20 3 , 20 4 ; 120 1 , 120 2 , 120 3 , 120 4 ) towards the light modules , and a passage connecting the one or more inlets with the outlets; the duct (8; 108) comprising at least one attached separating wall of the passage; said attached wall being a wall separate from the body of the duct and being fastened to said body of the duct; characterized in that the duct (8; 108) comprises at least two hollow parts (8 1 , 8 2 ; 108 1 , 108 2 ) joined to one another, the or at least one of the attached walls (24; 124) being disposed between said hollow parts (8 1 , 8 2 ; 108 1 , 108 2 ). - a plurality of light modules ; - a cooling air duct (8; 108) for the light modules , with at least one inlet (16, 18; 116) for an air flow from one or more fans (10, 12; 110), a plurality of air outlets (20 1 , 20 2 , 20 3 , 20 4 ; 120 1 , 120 2 , 120 3 , 120 4 ) towards the light modules , and a passage connecting the one or more inlets with the outlets;
- Computer implemented method for processing a seismic image comprising seismic values obtained from seismic measurements performed on a geological formation, said seismic image comprising at least one horizontal dimension and one vertical dimension, said method comprising: - (S30) determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; - (S31) decimating the seismic dip image by a decimating factor along at least one horizontal dimension in order to obtain a decimated seismic dip image; - (S32) initializing decimated seismic horizon surfaces, said decimated seismic horizon surfaces corresponding to seismic horizon surfaces using the same horizontal dimension as the decimated seismic dip image; - (S33) iteratively modifying the decimated seismic horizon surfaces to progressively increase alignment between local orientations of each decimated seismic horizon surface and the corresponding local seismic dips of the decimated seismic dip image, said local orientations and/or local seismic dips being corrected by the decimating factor, until a predetermined stop criterion is satisfied; - (S35) determining a relative geological time, RGT, image based on the decimated seismic horizon surfaces. - (S30) determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; - (S31) decimating the seismic dip image by a decimating factor along at least one horizontal dimension in order to obtain a decimated seismic dip image; - (S32) initializing decimated seismic horizon surfaces, said decimated seismic horizon surfaces corresponding to seismic horizon surfaces using the same horizontal dimension as the decimated seismic dip image; - (S33) iteratively modifying the decimated seismic horizon surfaces to progressively increase alignment between local orientations of each decimated seismic horizon surface and the corresponding local seismic dips of the decimated seismic dip image, said local orientations and/or local seismic dips being corrected by the decimating factor, until a predetermined stop criterion is satisfied; - (S35) determining a relative geological time, RGT, image based on the decimated seismic horizon surfaces.
A method for determining a correction in positioning of beam steering optics of a scanner of an additive manufacturing apparatus comprising a plurality of scanners, each scanner of the plurality of scanners comprising beam steering optics for directing a corresponding radiation beam to a working plane in which material is consolidated in layers, the method comprising controlling the beam steering optics of a pair of the scanners such that a first scanner of the pair directs a radiation beam to form a feature in the working plane and the feature is within a field of view of a position sensitive device of the second scanner of the pair, the position sensitive device for detecting radiation coming from the working plane that is collected by the beam steering optics of the second scanner , recording at least one detector value with the position sensitive device of the second scanner for the field of view , determining from the at least one detector value a position of the feature in the field of view and determining a correction value, map or function for correcting at least one position of the steering optics of one of the first and second scanners from a comparison of the position of the feature in the field of view with a nominal position as determined from a positioning of the beam steering optics of the first scanner of the pair when forming the feature, wherein the feature: i) is a radiation profile or melt pool formed by the radiation beam in the working plane ; ii) is ablated into a surface or formed by consolidating material in the working plane using the radiation beam ; or iii) is structured light directed onto material in the working plane by the first scanner . i) is a radiation profile or melt pool formed by the radiation beam in the working plane ; ii) is ablated into a surface or formed by consolidating material in the working plane using the radiation beam ; or iii) is structured light directed onto material in the working plane by the first scanner .
A combination of a small substrate, a semiconductor process carrier for use on an electrostatic chuck and an electrostatic chuck stage , wherein the semiconductor process carrier includes a transferring base portion formed of a semiconductor substrate for enabling a small substrate to be held, wherein an opening is formed in the transferring base portion , and a polyimide film is attached to a bottom surface of the transferring base portion so as to cover the opening , wherein the small substrate is accommodated in the opening, the small substrate having a diameter smaller than a diameter of the transferring base portion or a shape different from a shape of the transferring base portion , wherein a hole for securing the small substrate by vacuum chuck or cooling the small substrate is formed in the polyimide film covering the opening and wherein the transferring base portion and the small substrate are attached by an electrostatic force to an electrostatic chuck stage , and wherein the polyimide film is disposed between the transferring base portion and the electrostatic chuck stage .
A toner replenishing device comprising: a toner container that contains toner; a toner detection sensor that is located on a wall surface in the toner container and detects whether the toner remains at a height at which the toner detection sensor is located; and a toner collecting unit that collects toner to a vicinity of a detection surface of the toner detection sensor in the toner container , wherein the toner collecting unit includes a rotatable toner collecting member , and wherein the toner collecting member is a plate-like paddle, and an opening is provided on the paddle; characterised by further comprising a detection surface cleaning member that rotates in the toner container and cleans the detection surface of the toner detection sensor. a toner container that contains toner; a toner detection sensor that is located on a wall surface in the toner container and detects whether the toner remains at a height at which the toner detection sensor is located; and a toner collecting unit that collects toner to a vicinity of a detection surface of the toner detection sensor in the toner container , wherein the toner collecting unit includes a rotatable toner collecting member , and wherein the toner collecting member is a plate-like paddle, and an opening is provided on the paddle; characterised by further comprising a detection surface cleaning member that rotates in the toner container and cleans the detection surface of the toner detection sensor.
A zoom lens, comprising in order from an object side to an image side: a first lens unit (L1) having a positive refractive power and located closest to the object side; a second lens unit (L2) having a negative refractive power; and a third lens unit (L3) having a positive refractive power; wherein a distance between adjacent lens units is configured to change when zooming, wherein the second lens unit includes a positive lens and at least two negative lenses, wherein when zooming from a wide angle end to a telephoto end, the first lens unit is stationary, the second lens unit is configured to move toward the image side and then to move toward the object side, and the third lens unit is configured to move toward the object side, and characterized in that when an amount of movement of the third lens unit when zooming from the wide angle end to the telephoto end is represented by M3, a focal length of the third lens unit is represented by f3, a refractive index of a material of the positive lens included in the second lens unit with respect to a d line is represented by Nd2p, an Abbe number of the material is represented by vd2p, a focal length of the first lens unit is represented by f1, and a focal length of the second lens unit is represented by f2, conditional expressions 1.30 < M3/f3 < 3.00, 1.84 < Nd2p < 2.30, 5.0 < vd2p < 25.0, and -35.0 < f1/f2 < -8.0 are satisfied. a first lens unit (L1) having a positive refractive power and located closest to the object side; a second lens unit (L2) having a negative refractive power; and a third lens unit (L3) having a positive refractive power; wherein a distance between adjacent lens units is configured to change when zooming, wherein the second lens unit includes a positive lens and at least two negative lenses, wherein when zooming from a wide angle end to a telephoto end, the first lens unit is stationary, the second lens unit is configured to move toward the image side and then to move toward the object side, and the third lens unit is configured to move toward the object side, and characterized in that when an amount of movement of the third lens unit when zooming from the wide angle end to the telephoto end is represented by M3, a focal length of the third lens unit is represented by f3, a refractive index of a material of the positive lens included in the second lens unit with respect to a d line is represented by Nd2p, an Abbe number of the material is represented by vd2p, a focal length of the first lens unit is represented by f1, and a focal length of the second lens unit is represented by f2, conditional expressions 1.30 < M3/f3 < 3.00, 1.84 < Nd2p < 2.30, 5.0 < vd2p < 25.0, and -35.0 < f1/f2 < -8.0 are satisfied.
Flexible product , preferably an elastic product , particularly preferably an elastomeric product , comprising at least one first layer , which is at least partly, preferably completely, formed from a flexible material, preferably from an elastic material, particularly preferably from an elastomeric material, and comprising at least one recess in the first layer , which at least partly has an electrically conductive flexible filling , wherein at least one conductor track and/or at least one electrical component is/are formed by the recess having the electrically conductive flexible filling , characterized in that the recess was filled with the electrically conductive flexible filling by printing. at least one first layer , which is at least partly, preferably completely, formed from a flexible material, preferably from an elastic material, particularly preferably from an elastomeric material, and comprising at least one recess in the first layer , which at least partly has an electrically conductive flexible filling , wherein at least one conductor track and/or at least one electrical component is/are formed by the recess having the electrically conductive flexible filling , characterized in that the recess was filled with the electrically conductive flexible filling by printing.
A protective material dispenser for use with a fuel gun of the kind comprising: a hose for conveying fuel therein, the hose terminating at a nozzle for insertion into a vehicle's filling inlet; and a hand grip provided adjacent to the nozzle for manual positioning of the nozzle into the vehicle's filling inlet; the protective material dispenser comprising: a housing for receiving protective material therein, the housing comprising: an opening through which at least some of the protective material is removable; and wherein: the protective material dispenser further comprises a plurality of couplings , each coupling configured to be removably securable in a respective manner to a respective part of a fuel gun, and each provided with a housing attachment part; and the housing further comprises an attachment mechanism configured to cooperatively engage with the housing attachment part of each of the plurality of couplings , such that the housing is removably securable to each of the plurality of couplings ; such that the housing may be secured to a first part of a fuel gun via a first one of the plurality of couplings , removed therefrom and re-secured to a second part of the fuel gun via a second one of the plurality of couplings . a hose for conveying fuel therein, the hose terminating at a nozzle for insertion into a vehicle's filling inlet; and a hand grip provided adjacent to the nozzle for manual positioning of the nozzle into the vehicle's filling inlet; a housing for receiving protective material therein, the housing comprising: an opening through which at least some of the protective material is removable; and wherein: the protective material dispenser further comprises a plurality of couplings , each coupling configured to be removably securable in a respective manner to a respective part of a fuel gun, and each provided with a housing attachment part; and the housing further comprises an attachment mechanism configured to cooperatively engage with the housing attachment part of each of the plurality of couplings , such that the housing is removably securable to each of the plurality of couplings ; an opening through which at least some of the protective material is removable; and wherein: the protective material dispenser further comprises a plurality of couplings , each coupling configured to be removably securable in a respective manner to a respective part of a fuel gun, and each provided with a housing attachment part; and the housing further comprises an attachment mechanism configured to cooperatively engage with the housing attachment part of each of the plurality of couplings , such that the housing is removably securable to each of the plurality of couplings ; such that the housing may be secured to a first part of a fuel gun via a first one of the plurality of couplings , removed therefrom and re-secured to a second part of the fuel gun via a second one of the plurality of couplings .
A carriage for a wiper assembly for a print head of an inkjet printer , comprising: a wiper blade element comprising a wiper blade for wiping the print head of the inkjet printer ; and a spring member ; wherein the wiper blade element is attached to the rest of the carriage by means of the spring member ; characterized in that the carriage comprises at least one fin attached to the wiper blade element and at least one magnet ; the at least one fin is made of an electrically conducting material; and the at least one fin is positioned adjacent at a distance from the at least one magnet , the at least one fin is movable, by the spring member , with respect to the at least one magnet , such that oscillations of the wiper blade element at the spring member with respect to the at least one magnet cause the at least one magnet to induce electrical currents in the at least one fin in order to dampen said oscillations .
An optical fiber , comprising: a core having a refractive index profile and a centerline; and a cladding layer surrounding and directly adjacent the core ; wherein the core includes updoping material and is doped with Al in at least one region of the core , characterized in that the difference between the refractive index for longitudinal acoustic waves within the core and the refractive index for longitudinal acoustic waves within the cladding layer is 0.0275% or less than 0.0275%. a core having a refractive index profile and a centerline; and a cladding layer surrounding and directly adjacent the core ; wherein the core includes updoping material and is doped with Al in at least one region of the core , characterized in that the difference between the refractive index for longitudinal acoustic waves within the core and the refractive index for longitudinal acoustic waves within the cladding layer is 0.0275% or less than 0.0275%.
A power generation system comprising: a first compressor configured to receive and compress one or more oxidants ; a first combustion chamber configured to receive and stoichiometrically combust the compressed oxidant and at least one first fuel to generate an exhaust stream ; a first expander configured to receive the exhaust stream from the first combustion chamber and generate a gaseous exhaust stream ; a separator configured to receive and separate the gaseous exhaust stream into a CO 2 rich stream and a CO 2 lean stream , and wherein the power generation system is configured to recycle at least a portion of the CO 2 rich stream to the first combustion chamber. a first compressor configured to receive and compress one or more oxidants ; a first combustion chamber configured to receive and stoichiometrically combust the compressed oxidant and at least one first fuel to generate an exhaust stream ; a first expander configured to receive the exhaust stream from the first combustion chamber and generate a gaseous exhaust stream ; a separator configured to receive and separate the gaseous exhaust stream into a CO 2 rich stream and a CO 2 lean stream , and wherein the power generation system is configured to recycle at least a portion of the CO 2 rich stream to the first combustion chamber.
A method of operating an electronic circuit that comprises: positive and negative input terminals [A, B] adapted to be connected across a floating source of direct current (DC) power ; positive [V+], negative [V-] and ground output terminals; a charge storage device [C1] connected across the positive and negative input terminals [A, B]; first and second switches [IGBT1, IGBT2] connected in series across the positive and negative input terminals [A, B], wherein a connection point between the first and the second switches forms a node [C]; a first capacitor [C2] connected across the positive [V+] and ground output terminals; a second capacitor [C3] connected across the ground and negative [V-] output terminals; a first diode [CR1], an anode of which is connected to the positive input terminal [A], and a cathode of which is connected to the positive output terminal [V+]; a second diode [CR2], an anode of which is connected to the negative output terminal [V-], and a cathode of which is connected to the negative input terminal [B]; and an inductor [L1] connected between the node [C] and the ground output terminal, the method comprising charging the charge storage device [C1], and being characterised by : during a half of a period of a resonant circuit formed by the inductor [L1] and the second capacitor [C3], discharging the charge storage device [C1] across the inductor [L1] to the second capacitor [C3] by closing the first switch [IGBT1] and opening the second switch [IGBT2]; and during a half of a period of the resonant circuit formed by the inductor [L1] and the first capacitor [C2], discharging the charge storage device [C1] across the inductor [L1] to the first capacitor [C2] by opening the first switch [IGBT1] and closing the second switch [IGBT2]. during a half of a period of a resonant circuit formed by the inductor [L1] and the second capacitor [C3], discharging the charge storage device [C1] across the inductor [L1] to the second capacitor [C3] by closing the first switch [IGBT1] and opening the second switch [IGBT2]; and during a half of a period of the resonant circuit formed by the inductor [L1] and the first capacitor [C2], discharging the charge storage device [C1] across the inductor [L1] to the first capacitor [C2] by opening the first switch [IGBT1] and closing the second switch [IGBT2].