mhurhangee/ep-ind-claims huggingface dataset:
An organic light emitting device, comprising: a glass substrate; an organic light emitting unit in which a first electrode, an organic light emitting material layer, and a second electrode are sequentially stacked on the glass substrate; an encapsulating unit configured to seal an external side of the organic light emitting unit, wherein the encapsulating unit comprises a sealing layer, which is in contact with the upper and lateral external sides of the organic light emitting unit, and a metal layer on the sealing layer; and a protecting unit provided over an entire region of an upper surface region and a lateral surface region of the encapsulating unit, wherein the protecting unit is provided on an entire region of an upper surface region of the glass substrate, on which the organic light emitting unit and the encapsulating unit are not provided, and an entire region of a lateral surface region of the glass substrate, wherein the protecting unit comprises an insulating layer and a metal pattern layer for electrically connecting the first electrode or the second electrode with an external power source through the metal pattern layer, wherein the glass substrate is a thin glass substrate wherein the thickness of the glass substrate is 0.1 mm or lower. a glass substrate; an organic light emitting unit in which a first electrode, an organic light emitting material layer, and a second electrode are sequentially stacked on the glass substrate; an encapsulating unit configured to seal an external side of the organic light emitting unit, wherein the encapsulating unit comprises a sealing layer, which is in contact with the upper and lateral external sides of the organic light emitting unit, and a metal layer on the sealing layer; and a protecting unit provided over an entire region of an upper surface region and a lateral surface region of the encapsulating unit, wherein the protecting unit is provided on an entire region of an upper surface region of the glass substrate, on which the organic light emitting unit and the encapsulating unit are not provided, and an entire region of a lateral surface region of the glass substrate, wherein the protecting unit comprises an insulating layer and a metal pattern layer for electrically connecting the first electrode or the second electrode with an external power source through the metal pattern layer, wherein the glass substrate is a thin glass substrate wherein the thickness of the glass substrate is 0.1 mm or lower.
Device for sorting particles by size range, said particles being contained in a fluidic sample, said device comprising n sorting stages (Ei) for particles of rank i, connected in series, with i ranking from 1 to n and n being greater than or equal to 2, each sorting stage of rank i+1 being intended to separate particles of a smaller size range than the stage of rank i, each sorting stage comprising a fluidic structure which comprises: - at least one first inlet (INi_1), said first inlet of the sorting stage of rank 1 being intended to receive said fluidic sample, - a particle separation device (Zi) for separating the particles present in the sample according to a critical diameter (Dci), - a first outlet (OUTi_1) for recovering the particles sorted by this sorting stage of dimensions smaller than said critical diameter of the separation device (Zi) of the sorting stage and a second outlet (OUTi_2) for recovering the particles sorted by this sorting stage of dimensions greater than said critical diameter of the separation device (Zi) of the sorting stage (Ei), said device being characterized in that it comprises: - an inlet (INi+1_1) of the sorting stage of rank i+1 which is connected to the first outlet (OUTi_1) of the sorting stage of rank i for receiving the particles sorted by the stage of rank i which are of dimensions smaller than said critical diameter of the separation device (Zi) of the sorting stage of rank i, - means for controlling the fluid pressure applied on each first outlet (OUTi_1) and each second outlet (OUTi_2) of each sorting stage (Ei), said pressure control means comprising fluidic channels arranged to convey a balancing solution (Seq) to each outlet of a sorting stage, so as to balance the fluid pressure between the first outlet and the second outlet of each sorting stage. - at least one first inlet (INi_1), said first inlet of the sorting stage of rank 1 being intended to receive said fluidic sample, - a particle separation device (Zi) for separating the particles present in the sample according to a critical diameter (Dci), - a first outlet (OUTi_1) for recovering the particles sorted by this sorting stage of dimensions smaller than said critical diameter of the separation device (Zi) of the sorting stage and a second outlet (OUTi_2) for recovering the particles sorted by this sorting stage of dimensions greater than said critical diameter of the separation device (Zi) of the sorting stage (Ei), - an inlet (INi+1_1) of the sorting stage of rank i+1 which is connected to the first outlet (OUTi_1) of the sorting stage of rank i for receiving the particles sorted by the stage of rank i which are of dimensions smaller than said critical diameter of the separation device (Zi) of the sorting stage of rank i, - means for controlling the fluid pressure applied on each first outlet (OUTi_1) and each second outlet (OUTi_2) of each sorting stage (Ei), said pressure control means comprising fluidic channels arranged to convey a balancing solution (Seq) to each outlet of a sorting stage, so as to balance the fluid pressure between the first outlet and the second outlet of each sorting stage.
A terminal roaming method, performed by a terminal in a wireless local area network, wherein the method comprises: sending, by a terminal to a first access point, AP, associated with the terminal, an action frame that is used to request to associate with a second AP, wherein a receiver address of the action frame is an address of the first AP, and the action frame further comprises an identifier of the second AP; and when the terminal receives a response frame sent by the first AP for the action frame, and the response frame indicates that association succeeds, and wherein the response frame comprises an association identifier allocated by the second AP to the terminal, establishing, by the terminal, association with the second AP; wherein operating channels of the first AP and the second AP are different, and after the establishing, by the terminal, association with the second AP, the method further comprises: when the terminal receives a switching notification sent by the first AP, changing, by the terminal, an operating channel from the operating channel of the first AP to the operating channel of the second AP. sending, by a terminal to a first access point, AP, associated with the terminal, an action frame that is used to request to associate with a second AP, wherein a receiver address of the action frame is an address of the first AP, and the action frame further comprises an identifier of the second AP; and when the terminal receives a response frame sent by the first AP for the action frame, and the response frame indicates that association succeeds, and wherein the response frame comprises an association identifier allocated by the second AP to the terminal, establishing, by the terminal, association with the second AP; wherein operating channels of the first AP and the second AP are different, and after the establishing, by the terminal, association with the second AP, the method further comprises: when the terminal receives a switching notification sent by the first AP, changing, by the terminal, an operating channel from the operating channel of the first AP to the operating channel of the second AP.
A nanopositioning device comprising: a mount; a moving stage, held within said mount by sets of flexures on opposite sides of the moving stage such that the moving stage is displaceable in a longitudinal direction within said mount; and a piezoelectric actuator mechanically coupled to said moving stage to controllably displace the moving stage in said longitudinal direction; and further comprising a first pair of sets of flexures (106a,106b) at either side of said moving stage each set of flexures of said first pair comprising a first number of metal leaves; and a second pair of sets of flexures (108a,108b) at either side of said moving stage and longitudinally displaced from said first pair of sets of flexures, the nanopositioning device characterised in that: each set of flexures of said second pair comprise a second number of metal leaves which is greater than said first number of metal leaves. a mount; a moving stage, held within said mount by sets of flexures on opposite sides of the moving stage such that the moving stage is displaceable in a longitudinal direction within said mount; and a piezoelectric actuator mechanically coupled to said moving stage to controllably displace the moving stage in said longitudinal direction; and further comprising a first pair of sets of flexures (106a,106b) at either side of said moving stage each set of flexures of said first pair comprising a first number of metal leaves; and a second pair of sets of flexures (108a,108b) at either side of said moving stage and longitudinally displaced from said first pair of sets of flexures, the nanopositioning device characterised in that: each set of flexures of said second pair comprise a second number of metal leaves which is greater than said first number of metal leaves.
A point-of-load regulator comprising: a power conversion circuit adapted to convert an intermediate voltage to an output voltage; a serial data bus interface adapted to communicate monitoring information to and from an external serial data bus connected thereto; and a controller connected to said serial data bus interface and said power conversion circuit, wherein said serial data bus interface is adapted to communicate programming information to and from the external serial data bus; and said controller is adapted to determine operating parameters for said power conversion circuit responsive to said programming information and generate said monitoring information responsive to operational characteristics of said power conversion circuit, characterized by further comprising at least one of: a hardwired interface coupled to said controller permitting said controller to determine said operating parameters without receiving said programming information from said serial data bus interface, a memory containing default configuration settings to revert to in the absence of said programming information received from said serial data bus interface. a power conversion circuit adapted to convert an intermediate voltage to an output voltage; a serial data bus interface adapted to communicate monitoring information to and from an external serial data bus connected thereto; and a controller connected to said serial data bus interface and said power conversion circuit, wherein said serial data bus interface is adapted to communicate programming information to and from the external serial data bus; and said controller is adapted to determine operating parameters for said power conversion circuit responsive to said programming information and generate said monitoring information responsive to operational characteristics of said power conversion circuit, characterized by further comprising at least one of: a hardwired interface coupled to said controller permitting said controller to determine said operating parameters without receiving said programming information from said serial data bus interface, a memory containing default configuration settings to revert to in the absence of said programming information received from said serial data bus interface. a hardwired interface coupled to said controller permitting said controller to determine said operating parameters without receiving said programming information from said serial data bus interface, a memory containing default configuration settings to revert to in the absence of said programming information received from said serial data bus interface.
A transparent thermoplastic molding composition comprising: a transparent blend of a polycarbonate resin with a polyester resin; from 0.005 weight percent to 2 weight percent, based on the weight of the composition, of a salt of the formula: (RA-SO 3 -) n X n+, wherein R denotes perfluorinated linear or branched carbon chain having 1 to 30 carbon atoms, A denotes a direct bond or an aromatic nucleus, n denotes an integer of 1 or 2, and X denotes a metal element selected from the group consisting of sodium and potassium; and from 0.03 weight percent to 5 weight percent, based on the weight of the composition, of a glycerol monostearate, wherein the transparent thermoplastic molding composition has a total transmittance according to ASTM D-1003 of greater than 84 % and an electric resistivity according to ASTM D-257 (at 277°C after 1000 seconds electrification at 100 volts) of less than 2.5E+06 ohm-m. a transparent blend of a polycarbonate resin with a polyester resin; from 0.005 weight percent to 2 weight percent, based on the weight of the composition, of a salt of the formula: (RA-SO 3 -) n X n+, wherein R denotes perfluorinated linear or branched carbon chain having 1 to 30 carbon atoms, A denotes a direct bond or an aromatic nucleus, n denotes an integer of 1 or 2, and X denotes a metal element selected from the group consisting of sodium and potassium; and from 0.03 weight percent to 5 weight percent, based on the weight of the composition, of a glycerol monostearate, wherein the transparent thermoplastic molding composition has a total transmittance according to ASTM D-1003 of greater than 84 % and an electric resistivity according to ASTM D-257 (at 277°C after 1000 seconds electrification at 100 volts) of less than 2.5E+06 ohm-m.
A system for use on or near train tracks, comprising: a first portable device that is battery powered, the first portable device including a first wireless transceiver configured to transmit and receive signals using a chirp spread spectrum; a second portable device that is battery powered, the second portable device (150, 160) including a second wireless transceiver device configured to transmit and receive signals using the chirp spread spectrum, wherein the first portable device is configured to communicate with the second portable device to determine a distance between the first and second portable devices (150, 160) using ranging estimation based on chirp spread spectrum modulation scheme pulses, and the first portable device is configured to generate an alert if the determined distance is above a threshold distance; wherein the alert is automatically generated if the measured distance is above the threshold distance; and where the alert is at least one of visible, audible and haptic. a first portable device that is battery powered, the first portable device including a first wireless transceiver configured to transmit and receive signals using a chirp spread spectrum; a second portable device that is battery powered, the second portable device (150, 160) including a second wireless transceiver device configured to transmit and receive signals using the chirp spread spectrum, wherein the first portable device is configured to communicate with the second portable device to determine a distance between the first and second portable devices (150, 160) using ranging estimation based on chirp spread spectrum modulation scheme pulses, and the first portable device is configured to generate an alert if the determined distance is above a threshold distance; wherein the alert is automatically generated if the measured distance is above the threshold distance; and where the alert is at least one of visible, audible and haptic.
A converter assembly for converting a primary light into a secondary light, comprising at least one body laterally supported by a frame and having a light-converting open-pore structure whose pores are gas-filled or evacuated or at least partially filled with an organic material different from the material of the light-converting structure, the surfaces of both the light-converting structure and the inner sides of the frame being completely covered with a transparent layer free of organic components, such that each of said bodies forms an area in which a property of the incident light and preferably its wavelength is changed.
An air filter cartridge comprising: (a) a media pack surrounding an open filter interior having first and second ends (50a, 50b); (b) a first end cap positioned on the media pack first end; (i) the first end cap having a central aperture therein; (c) a housing seal member positioned on the first end cap; (d) a second end cap on the media pack second end; the second end cap including an inner surface and an outer surface; characterized by: (i) the outer surface including a serpentine-shaped receiving groove having serpentine inner and outer walls spaced no more than 25 mm apart; (ii) the outer surface including an outwardly directed projection surrounded by the receiving groove and acting along an inside surface as a central receiving projection;; and, (iii) the inner surface including the central receiving projection projecting away from the first end cap; the central receiving projection being surrounded by the receiving groove. (a) a media pack surrounding an open filter interior having first and second ends (50a, 50b); (b) a first end cap positioned on the media pack first end; (i) the first end cap having a central aperture therein; (i) the first end cap having a central aperture therein; (c) a housing seal member positioned on the first end cap; (d) a second end cap on the media pack second end; the second end cap including an inner surface and an outer surface; characterized by: (i) the outer surface including a serpentine-shaped receiving groove having serpentine inner and outer walls spaced no more than 25 mm apart; (ii) the outer surface including an outwardly directed projection surrounded by the receiving groove and acting along an inside surface as a central receiving projection;; and, (iii) the inner surface including the central receiving projection projecting away from the first end cap; the central receiving projection being surrounded by the receiving groove. (i) the outer surface including a serpentine-shaped receiving groove having serpentine inner and outer walls spaced no more than 25 mm apart; (ii) the outer surface including an outwardly directed projection surrounded by the receiving groove and acting along an inside surface as a central receiving projection;; and, (iii) the inner surface including the central receiving projection projecting away from the first end cap; the central receiving projection being surrounded by the receiving groove. the central receiving projection being surrounded by the receiving groove.
A wedge drive designed to redirect a vertical pressing force into a horizontal, linear working motion, comprising a sliding element and a sliding element holder which are two guide elements (2, 3) on which a guide device with a sliding plate assembly (10, 20, 30) with two side sliding plates (10, 30) and a central guide is arranged, wherein the side sliding plates (10, 30) are at a distance from one another in the transverse direction which is perpendicular to the sliding direction, wherein the center guide is arranged between the two side sliding plates (10, 20) and is fastened on the sliding element, wherein the two side sliding plates (10, 30) are constructed with at least one shoulder (11, 31) which rest(s) with an interlocking connection on a corresponding step (3a, 3b) formed on the guide element, wherein the interlocking connection acts in or against the defined transverse direction so that transverse forces are caught and each side sliding plate (10, 30) rests with at least the following contact surfaces (12, 13, 14 and 32, 33, 34, respectively) on the sliding element holder: a. One contact surface (12, 32) of each lies on a first plane at a distance from the sliding element and runs in the transverse direction, and b. A second contact surface (14, 34) lies on a second plane at a distance from the first plane and the sliding element further than the first plane and also runs in the transverse direction, and c. A third contact surface (13 and 33, respectively) runs perpendicularly to the latter, wherein the particular side sliding plates (10, 30) are fastened by fastening means to the sliding element holder, characterized in that the fastening means are arranged in the area inside the particular first contact surface (12, 32). a. One contact surface (12, 32) of each lies on a first plane at a distance from the sliding element and runs in the transverse direction, and b. A second contact surface (14, 34) lies on a second plane at a distance from the first plane and the sliding element further than the first plane and also runs in the transverse direction, and c. A third contact surface (13 and 33, respectively) runs perpendicularly to the latter, wherein
A method of fabricating a part using coreactive three-dimensional printing, comprising: independently combining and mixing a first component and a second component to form a first coreactive composition and a second coreactive composition, wherein the constituents of the components are not coreactive until combined and mixed with one another to form a coreactive composition, wherein each of the first coreactive composition and the second coreactive composition comprises a first reactive compound and a second reactive compound; and the first reactive compound is reactive with the second reactive compound; coextruding the first coreactive composition and the second coreactive composition through a coextrusion nozzle to form a coextrudate; depositing the coextrudate in successive layers using three-dimensional printing to fabricate a part; and while depositing the coextrudate, independently changing the constituents of the first component and/or the constituents of the second component and/or changing a volume mix ratio of the first component and the second component. independently combining and mixing a first component and a second component to form a first coreactive composition and a second coreactive composition, wherein the constituents of the components are not coreactive until combined and mixed with one another to form a coreactive composition, wherein each of the first coreactive composition and the second coreactive composition comprises a first reactive compound and a second reactive compound; and the first reactive compound is reactive with the second reactive compound; coextruding the first coreactive composition and the second coreactive composition through a coextrusion nozzle to form a coextrudate; depositing the coextrudate in successive layers using three-dimensional printing to fabricate a part; and while depositing the coextrudate, independently changing the constituents of the first component and/or the constituents of the second component and/or changing a volume mix ratio of the first component and the second component.