mhurhangee/patent-ind-claim-en huggingface dataset:
A high strength laminate structure providing a desired degree of porosity, comprising: a laminated substrate including a plurality of independent layers of material placed adjacent one another; a plurality of pores formed in said laminated substrate by the placement of a plurality of pins in at least a selected one of said plurality of independent layers of material prior to forming said laminated substrate; and wherein said plurality of pins are held in said selected plurality of independent layers of material until said laminated substrate is fully formed and then destroyed in said laminated substrate to form said pores , wherein said laminate structure includes at least a first layer and a second layer , wherein a preimpregnated material is used to affix the first layer and second layer during formation process. a laminated substrate including a plurality of independent layers of material placed adjacent one another; a plurality of pores formed in said laminated substrate by the placement of a plurality of pins in at least a selected one of said plurality of independent layers of material prior to forming said laminated substrate; and wherein said plurality of pins are held in said selected plurality of independent layers of material until said laminated substrate is fully formed and then destroyed in said laminated substrate to form said pores , wherein said laminate structure includes at least a first layer and a second layer , wherein a preimpregnated material is used to affix the first layer and second layer during formation process.
An image forming apparatus comprising: a plurality of applications ; a storage unit configured to store a setting indicative of whether to store personal settings in association with each of the applications; a control unit configured to store, in the storage unit, personal settings set while an application associated with the setting indicative of storing the personal settings stored in the storage unit is used, wherein the control unit stores the personal settings in association with user information; an authentication unit configured to authenticate a user; and a display control unit configured to, in response to selection of an application by the user authenticated by said authentication unit, read personal settings associated with the user information of the user and the selected application from said storage unit, and display the personal settings on a display section if a personal setting associated with the user information of the user and the selected application have been stored, wherein the display control unit displays, in response to selection of an application by the user authenticated by said authentication unit , initial settings of the selected application if a personal setting associated with the user information of the user and the selected application have not been stored. a plurality of applications ; a storage unit configured to store a setting indicative of whether to store personal settings in association with each of the applications; a control unit configured to store, in the storage unit, personal settings set while an application associated with the setting indicative of storing the personal settings stored in the storage unit is used, wherein the control unit stores the personal settings in association with user information; an authentication unit configured to authenticate a user; and a display control unit configured to, in response to selection of an application by the user authenticated by said authentication unit, read personal settings associated with the user information of the user and the selected application from said storage unit, and display the personal settings on a display section if a personal setting associated with the user information of the user and the selected application have been stored, wherein the display control unit displays, in response to selection of an application by the user authenticated by said authentication unit , initial settings of the selected application if a personal setting associated with the user information of the user and the selected application have not been stored.
Camshaft arrangement comprising a camshaft , a vane-type camshaft phaser attached to a first end of the camshaft , a valve actuating arrangement and an oil control valve , wherein the oil control valve comprises an elongated valve member arranged centrally inside the camshaft , where the elongated valve member can be adjusted in a longitudinal direction of the camshaft so as to control the oil flow to the vane-type camshaft phaser , wherein the valve actuating arrangement comprises a first valve actuating configuration attached to the camshaft and a second valve actuating configuration comprising an actuation arm connected to an actuator , the first valve actuating configuration being arranged to be actuated by the actuation arm of the second valve actuating configuration , thereby adjusting the elongated valve member .
A circuit substrate comprising: a first drive circuit (50-a1) that includes a first transistor and that is configured to output a first drive signal (COMA) that drives a first drive element ; a second drive circuit (50-B1) that includes a second transistor and is configured to output a second drive signal (COMB) that drives the first drive element, the first drive circuit is mounted on a first surface of the circuit substrate, the second drive circuit is mounted on a second surface of the circuit substrate, and the first transistor and the second transistor are disposed at positions that do not overlap one another in plan view of the circuit substrate; and an implementation area of the first drive circuit and an implementation area of the second drive circuit at least partially overlap one another in plan view of the circuit substrate. a first drive circuit (50-a1) that includes a first transistor and that is configured to output a first drive signal (COMA) that drives a first drive element ; a second drive circuit (50-B1) that includes a second transistor and is configured to output a second drive signal (COMB) that drives the first drive element, the first drive circuit is mounted on a first surface of the circuit substrate, the second drive circuit is mounted on a second surface of the circuit substrate, and the first transistor and the second transistor are disposed at positions that do not overlap one another in plan view of the circuit substrate; and an implementation area of the first drive circuit and an implementation area of the second drive circuit at least partially overlap one another in plan view of the circuit substrate.
A container comprising: a molded fiber tray comprising: a unitary fiber body defining at least one internal well (W1, W2, W3), wherein the unitary fiber body comprises a perimeter engaging wall extending upward from a perimeter rim of the molded fiber tray , the perimeter engaging wall comprising an inner surface , an outer surface , and an uppermost surface spanning the inner surface and the outer surface , and a molded fiber lid comprising: a unitary fiber body comprising at least one ceiling (C1, C2, C3), and wherein the unitary fiber body defines a perimeter engaging receiver extending upward from a perimeter rim of the molded fiber lid , the perimeter engaging receiver at least partially defined by an inner wall , an outer wall , and an uppermost wall spanning the inner wall and the outer wall , wherein the perimeter engaging wall is configured to be removably received in the perimeter engaging receiver , wherein, when so received, the inner surface contacts the inner wall , the outer surface contacts the outer wall , and the uppermost surface contacts the uppermost wall , and wherein, when so received, the at least one internal well (W1, W2, W3) and the at least one ceiling (C1, C2, C3) define a substantially sealed internal volume, characterized in that the uppermost surface of the perimeter engaging wall at least partially defines a continuous groove . a molded fiber tray comprising: a unitary fiber body defining at least one internal well (W1, W2, W3), wherein the unitary fiber body comprises a perimeter engaging wall extending upward from a perimeter rim of the molded fiber tray , the perimeter engaging wall comprising an inner surface , an outer surface , and an uppermost surface spanning the inner surface and the outer surface , and a molded fiber lid comprising: a unitary fiber body comprising at least one ceiling (C1, C2, C3), and wherein the unitary fiber body defines a perimeter engaging receiver extending upward from a perimeter rim of the molded fiber lid , the perimeter engaging receiver at least partially defined by an inner wall , an outer wall , and an uppermost wall spanning the inner wall and the outer wall , wherein the perimeter engaging wall is configured to be removably received in the perimeter engaging receiver , wherein, when so received, the inner surface contacts the inner wall , the outer surface contacts the outer wall , and the uppermost surface contacts the uppermost wall , and wherein, when so received, the at least one internal well (W1, W2, W3) and the at least one ceiling (C1, C2, C3) define a substantially sealed internal volume, characterized in that the uppermost surface of the perimeter engaging wall at least partially defines a continuous groove .
A resin composition comprising 1 to 20 parts by weight of (C) at least one styrene-based thermoplastic elastomer (component C) selected from the group consisting of a styrene-ethylene-propylene-styrene block copolymer (SEPS), a styrene-ethylene-butylene-styrene block copolymer (SEBS) and a styrenebutadiene-butylene-styrene block copolymer (SBBS) based on 100 parts by weight of the total of (A) a polycarbonate-based resin (component A) and (B) a polyolefin-based resin having a MFR at 230°C under a load of 2.16 kg of not less than 60 g/10 min (component B), wherein the polyolefin-based resin (component B) is a polypropylene resin or a maleic anhydride-modified polypropylene resin.
A silicone hydrogel ophthalmic lens, comprising a silicone hydrogel matrix and a high molecular weight hydrophilic polymer entrapped therein by entanglement of the polymer chain of the hydrophilic polymer within the silicone hydrogel matrix, wherein the hydrophilic polymer has a K-value of 46 to 100, and wherein the K-value is measured using the method described in the description.
An electronic apparatus comprising: a light-emitting device comprising: a first electrode; ; a second electrode facing the first electrode ; and an intermediate layer between the first electrode and the second electrode and comprising an emission layer, , wherein the emission layer comprises a perovskite compound represented by one of Formulae 1 to 4: <Formula 1> [A][B 1 n1 B 2 (1-n) ][X] 3 <Formula 2> [A] 2 [B 1 n2 B 2 (1-n2) ][X] 4 <Formula 3> [A] 3 [B 1 n2 B 2 (1-n2) ] 2 [X] 7 <Formula 4> [A] 4 [B 1 n2 B 2 (1-n2) ] 3 [X] 10 , wherein, in Formulae 1 to 4, A is at least one monovalent organic-cation, a monovalent inorganic cation, or any combination thereof, B 1 is a Sm 2+ ion, B 2 is at least one divalent inorganic cation and does not include a Sm 2+ ion, n1 is a real number satisfying 0 < n1 ≤ 1, n2 is a real number satisfying 0 < n2 ≤ 1, and X is at least one monovalent anion. a first electrode; ; a second electrode facing the first electrode ; and an intermediate layer between the first electrode and the second electrode and comprising an emission layer, , wherein the emission layer comprises a perovskite compound represented by one of Formulae 1 to 4: <Formula 1> [A][B 1 n1 B 2 (1-n) ][X] 3 <Formula 2> [A] 2 [B 1 n2 B 2 (1-n2) ][X] 4 <Formula 3> [A] 3 [B 1 n2 B 2 (1-n2) ] 2 [X] 7 <Formula 4> [A] 4 [B 1 n2 B 2 (1-n2) ] 3 [X] 10 , wherein, in Formulae 1 to 4, A is at least one monovalent organic-cation, a monovalent inorganic cation, or any combination thereof, B 1 is a Sm 2+ ion, B 2 is at least one divalent inorganic cation and does not include a Sm 2+ ion, n1 is a real number satisfying 0 < n1 ≤ 1, n2 is a real number satisfying 0 < n2 ≤ 1, and X is at least one monovalent anion.
A door system with a door drive having at least one connecting element for connecting to a leaf element of the door system and/or at least one leaf element with which the door drive is in operative connection in a driving manner, wherein at least the one leaf element of the door system can be moved with the door drive and the door drive having a motor unit with a housing , in which an annular stator is accommodated in a stationary manner and wherein a rotor is arranged so as to be rotatably movable in the housing , which has an output shaft , wherein the output shaft can be brought into operative connection in a driving manner with the leaf element, characterized in that the motor unit has half-shell-shaped housing halves connected to one another, wherein the half-shell-shaped housing halves define an interior in which at least the stator and the rotor are accommodated, and wherein the half-shell-shaped housing halves have bearing receiving sections projecting into the interior, in which bearing elements for supporting the output shaft are introduced at least in sections, wherein the output shaft has a first bearing section and has a second bearing section , on each of which a bearing element is accommodated, wherein a receiving section is designed between the bearing sections to form the rotor , on which a support body fitted with permanent magnets is accommodated, and wherein the support body has circumferential recesses on the inside, into which the bearing receiving sections protrude and the bearing elements are at least partially inserted.
Device for the electrochemical production of films, in particular thin films (F), comprising: - an electroplating unit comprising a container which can be filled with a liquid, at least one anode arranged in the container and a coating drum which can be rotated about an axis and whose lateral surface is designed as a cathode, the coating drum being located at least in sections inside the container at least in a working position, and - a transport unit for drawing the film (F) formed on the lateral surface of the drum perpendicular to the direction of the axis, the transport unit having a driven, closed and circumferential suction belt which can be subjected to negative pressure. - an electroplating unit comprising a container which can be filled with a liquid, at least one anode arranged in the container and a coating drum which can be rotated about an axis and whose lateral surface is designed as a cathode, the coating drum being located at least in sections inside the container at least in a working position, and - a transport unit for drawing the film (F) formed on the lateral surface of the drum perpendicular to the direction of the axis, the transport unit having a driven, closed and circumferential suction belt which can be subjected to negative pressure.
Method for analyzing a movement behavior of a mechanical object, comprising the steps of: - carrying out a plurality of measurements of a mechanical movement by means of position-based methods and/or force-based methods at multiple measuring points on the mechanical object, wherein the measurements each differ in one or more parameters influencing the measurement, wherein the one or more parameters for differentiating the measurements comprise a rotational speed of the mechanical object; - determining a spectrogram on the basis of measurement data of the measurements and according to a predetermined parameter of the mechanical object, in particular for selecting a measurement datum of a measurement; - determining one or more excitations of the mechanical object, wherein the excitations are maximum amplitudes for the corresponding spectrogram; - mapping the excitations in the spectrogram . - carrying out a plurality of measurements of a mechanical movement by means of position-based methods and/or force-based methods at multiple measuring points on the mechanical object, wherein the measurements each differ in one or more parameters influencing the measurement, wherein the one or more parameters for differentiating the measurements comprise a rotational speed of the mechanical object; - determining a spectrogram on the basis of measurement data of the measurements and according to a predetermined parameter of the mechanical object, in particular for selecting a measurement datum of a measurement; - determining one or more excitations of the mechanical object, wherein the excitations are maximum amplitudes for the corresponding spectrogram; - mapping the excitations in the spectrogram .
A conductive paste comprising a conductive powder, a glass frit, and an organic vehicle, wherein the conductive powder comprises copper and/or nickel as a main component(s), and the glass frit is substantially free of Pb, Cd, and Bi, comprises 40 to 65% by mass of BaO, 15 to 23% by mass of B 2 O 3 , 2 to 12% by mass of Al 2 O 3 , 4 to 8% by mass of SiO 2 , 0 to 5% by mass of ZnO, 0.5 to 7% by mass of TiO 2 , 3 to 7.5% by mass of CaO, and comprises any one or more of MnO 2 , CuO, and CoO in the ranges of 0 to 7% by mass of MnO 2 , 0 to 16% by mass of CuO, and 0 to 5% by mass of CoO, in terms of oxide, and the glass frit contains 1000 ppm or less of each of Pb, Cd, and Bi in terms of oxide.
A method for determining the cause of an ignition failure at the burner of a boiler, the burner being used to burn a mixture of a gaseous or liquid fuel and air, an ignition electrode being used to ignite the mixture during an ignition phase, and an ionization electrode being used to monitor the combustion of the mixture, and, at least during the ignition phase, a temperature of the boiler, an air mass flow flowing to the burner , a voltage supply of the ignition electrode and an ionization signal of the ionization electrode also being monitored, characterized in that if it is found that there is no ionization signal and no change in voltage between the ignition electrode and the burner during the ignition phase, a signal is generated with the information that no ignition spark has been generated, and if it is found that there is no ionization signal during the ignition phase and there is a rise in the temperature of the boiler after the ignition phase, a signal is generated with the information that the ionization electrode is defective, and if it is found that there is no ionization signal and no drop in the air mass flow during the ignition phase, a signal is generated with the information that no fuel has been supplied to the burner , wherein the order of the testing is in principle arbitrary and wherein the three said options are tried until at least one cause is determined.
Use of a carrier to carry a biofilm in a moving bed biofilm reactor (MBBR) in a moving bed biofilm reactor (MBBR) process, characterized in that the carrier comprises a carrier material, wherein the carrier material comprises at least 5 wt. %, such as at least 10, 15, 20, 25, 30, 35, 40 or 45 wt. % of a first high density polyethylene with a bimodal molecular weight distribution, and a second high density polyethylene, the second high density polyethylene having unimodal, bimodal or multimodal molecular weight distribution, preferably having unimodal molecular weight distribution, whereby the carrier material has multimodal molecular weight distribution.
An electronic device, comprising: a processor ; a first modem ; a second modem ; a first subscriber identity module, SIM interface ; a second SIM interface ; an embedded universal integrated circuit card, eUICC , wherein the eUICC is configured to store an embedded subscriber identity module, eSIM; and a smart card interface, SCI; wherein the processor is coupled to the first modem, the second modem, the first SIM interface, the second SIM interface, the eUICC, and a first end of the SCI, wherein the second SIM interface and the eUICC are coupled to a second end of the SCI, and wherein the processor is configured to control a connection of the second SIM interface and the eUICC in relation to the first modem and the second modem through the SCI. a processor ; a first modem ; a second modem ; a first subscriber identity module, SIM interface ; a second SIM interface ; an embedded universal integrated circuit card, eUICC , wherein the eUICC is configured to store an embedded subscriber identity module, eSIM; and a smart card interface, SCI; wherein the processor is coupled to the first modem, the second modem, the first SIM interface, the second SIM interface, the eUICC, and a first end of the SCI, wherein the second SIM interface and the eUICC are coupled to a second end of the SCI, and wherein the processor is configured to control a connection of the second SIM interface and the eUICC in relation to the first modem and the second modem through the SCI.
An aerodynamic surface assembly comprising: an aerodynamic surface defining an outer mold line over which a fluid is to flow in a downstream direction , wherein the outer mold line defines a smooth contour interrupted by a step down region that is inset relative to the smooth contour defined by the outer mold line upstream thereof, wherein the aerodynamic surface defines a plurality of orifices disposed in a linear array opening into the step down region; a plurality of overhangs extending from the outer mold line of the aerodynamic surface , each overhang of the plurality of overhangs being upstream of a respective orifice of the plurality of orifices and extending in the downstream direction at least partially over the respective orifice ; and a plurality of fluidic actuators comprising an input region, wherein each fluidic actuator defines a pair of curved passageways that extend from the input region to an interaction cavity of the fluidic actuator in fluid communication with a respective orifice ; wherein the input region is in fluid communication with the passageways at an end of the passageways at which pairs of curved passageways join to define a U-shape or horseshoe geometry; the aerodynamic surface assembly further comprising a plenum defined so as to extend through the aerodynamic surface , wherein the input region is in fluid communication with the plenum so as to receive fluid from the plenum that is then directed through each orifice . an aerodynamic surface defining an outer mold line over which a fluid is to flow in a downstream direction , wherein the outer mold line defines a smooth contour interrupted by a step down region that is inset relative to the smooth contour defined by the outer mold line upstream thereof, wherein the aerodynamic surface defines a plurality of orifices disposed in a linear array opening into the step down region; a plurality of overhangs extending from the outer mold line of the aerodynamic surface , each overhang of the plurality of overhangs being upstream of a respective orifice of the plurality of orifices and extending in the downstream direction at least partially over the respective orifice ; and a plurality of fluidic actuators comprising an input region, wherein each fluidic actuator defines a pair of curved passageways that extend from the input region to an interaction cavity of the fluidic actuator in fluid communication with a respective orifice ; wherein the input region is in fluid communication with the passageways at an end of the passageways at which pairs of curved passageways join to define a U-shape or horseshoe geometry; the aerodynamic surface assembly further comprising a plenum defined so as to extend through the aerodynamic surface , wherein the input region is in fluid communication with the plenum so as to receive fluid from the plenum that is then directed through each orifice .