mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a substrate; a thin film transistor provided on a first side of the substrate; a first electrode connected with the thin film transistor; an organic emission layer provided on the first electrode and capable of emitting light; a second electrode provided on the organic emission layer; and a light blocking layer contacting the substrate from a second side that faces the first side of the substrate, wherein the light is emitted in a direction toward the second electrode from the organic emission layer, wherein the substrate comprises a display area where a plurality of pixels are arranged in a matrix format and a peripheral area that surrounds the displays area, wherein the light blocking layer overlaps the entire display area, and wherein the light blocking layer partially overlaps the peripheral area, while not overlapping an edge of the peripheral area, the display device further comprising a cover panel that overlaps the substrate, wherein the light blocking layer is provided between the cover panel and the substrate, wherein the display device further comprises an impact buffer layer that overlaps the light blocking layer; characterised in that the display device further comprises an adhesive layer provided between the impact buffer layer and the light blocking layer, wherein the adhesive layer directly contacts a part of the substrate. a substrate; a thin film transistor provided on a first side of the substrate; a first electrode connected with the thin film transistor; an organic emission layer provided on the first electrode and capable of emitting light; a second electrode provided on the organic emission layer; and a light blocking layer contacting the substrate from a second side that faces the first side of the substrate, wherein the light is emitted in a direction toward the second electrode from the organic emission layer, wherein the substrate comprises a display area where a plurality of pixels are arranged in a matrix format and a peripheral area that surrounds the displays area, wherein the light blocking layer overlaps the entire display area, and wherein the light blocking layer partially overlaps the peripheral area, while not overlapping an edge of the peripheral area, the display device further comprising a cover panel that overlaps the substrate, wherein the light blocking layer is provided between the cover panel and the substrate, wherein the display device further comprises an impact buffer layer that overlaps the light blocking layer; characterised in that the display device further comprises an adhesive layer provided between the impact buffer layer and the light blocking layer, wherein the adhesive layer directly contacts a part of the substrate.
An apparatus for the controlled release of molecules comprising (i) a microchip device having a plurality of reservoirs containing the molecules for release, (ii) a container of a physiological acceptable carrier fluid, and (iii) a pump adapted to flow the carrier fluid across a surface of the microchip device, wherein the molecules are combined with the carrier fluid following release of the molecules from the reservoir. (i) a microchip device having a plurality of reservoirs containing the molecules for release, (ii) a container of a physiological acceptable carrier fluid, and (iii) a pump adapted to flow the carrier fluid across a surface of the microchip device,
A functionalized waveguide for a detector system, wherein the waveguide comprises a transparent base body having a front side and a rear side, wherein the base body comprises a partly transparent input coupling region and an output coupling region spaced apart therefrom in a first direction, wherein the input coupling region deflects only a portion of radiation coming from an object to be detected and impinging on the front side, such that the deflected portion propagates as coupled-in radiation in the base body as far as the output coupling region by means of reflections and impinges on the output coupling region, wherein the output coupling region deflects at least one portion of the coupled-in radiation impinging on it, such that the deflected portion emerges from the base body via the front side or rear side in order to impinge on the detector system, wherein the input coupling region comprises a plurality of diffractive input coupling structures, which differ in that they comprise different horizontal fields of view in a plane spanned by a perpendicular to the front side and a second direction transverse to the first direction, such that said structures deflect radiation from the different horizontal fields of view toward the output coupling region, characterized in that the diffractive input coupling structures are embodied such that they encode the radiation from the different horizontal fields of view during the deflection by means of different deflected wavelengths, such that the output coupling and/or detection are/is possible selectively for the different horizontal fields of view. wherein the waveguide comprises a transparent base body having a front side and a rear side, wherein the base body comprises a partly transparent input coupling region and an output coupling region spaced apart therefrom in a first direction, wherein the input coupling region deflects only a portion of radiation coming from an object to be detected and impinging on the front side, such that the deflected portion propagates as coupled-in radiation in the base body as far as the output coupling region by means of reflections and impinges on the output coupling region, wherein the output coupling region deflects at least one portion of the coupled-in radiation impinging on it, such that the deflected portion emerges from the base body via the front side or rear side in order to impinge on the detector system, wherein the input coupling region comprises a plurality of diffractive input coupling structures, which differ in that they comprise different horizontal fields of view in a plane spanned by a perpendicular to the front side and a second direction transverse to the first direction, such that said structures deflect radiation from the different horizontal fields of view toward the output coupling region, characterized in that the diffractive input coupling structures are embodied such that they encode the radiation from the different horizontal fields of view during the deflection by means of different deflected wavelengths, such that the output coupling and/or detection are/is possible selectively for the different horizontal fields of view.
An electronic device (101, 200) comprising: at least one or more interfaces (211, 213, 215, 217) formed as universal serial bus type-C; and at least one control circuit (120, 219) electrically connected to the interface, wherein the control circuit (120, 219) is configured to: respectively allocate two or more IDs to two or more external devices (210, 220, 230, 240) connected to the electronic device (101, 200) through two or more interfaces (211, 213, 215, 217), characterized in that the control circuit is further configured to: transmit the allocated IDs to the two or more external devices (210, 220, 230, 240), in response to transmitting the allocated IDs, control configuration channel terminals of the two or more interfaces (211, 213, 215, 217) to be maintained in an awake mode, wherein while the awake mode of CC terminals is maintained, the control circuit (120, 219) is configured to operate in a low power state, and the two or more external devices (210, 220, 230, 240) perform communication between each other through a communication path using the CC terminals. at least one or more interfaces (211, 213, 215, 217) formed as universal serial bus type-C; and at least one control circuit (120, 219) electrically connected to the interface, wherein the control circuit (120, 219) is configured to: respectively allocate two or more IDs to two or more external devices (210, 220, 230, 240) connected to the electronic device (101, 200) through two or more interfaces (211, 213, 215, 217), characterized in that the control circuit is further configured to: transmit the allocated IDs to the two or more external devices (210, 220, 230, 240), in response to transmitting the allocated IDs, control configuration channel terminals of the two or more interfaces (211, 213, 215, 217) to be maintained in an awake mode, transmit the allocated IDs to the two or more external devices (210, 220, 230, 240), in response to transmitting the allocated IDs, control configuration channel terminals of the two or more interfaces (211, 213, 215, 217) to be maintained in an awake mode, wherein while the awake mode of CC terminals is maintained, the control circuit (120, 219) is configured to operate in a low power state, and the two or more external devices (210, 220, 230, 240) perform communication between each other through a communication path using the CC terminals.
A method for transmitting voice messages, comprising: receiving voice data collected by a first intercom terminal (S101, S301, S401); storing the voice data collected to a predefined upload queue (S302, S403); detecting whether the size of the voice data collected reaches a predefined threshold (S102, S303); and uploading the voice data collected to a transit server via a predefined network when the size of the voice data collected reaches the predefined threshold, or when the voice data collected contains a voice message terminator; wherein uploading the voice data collected to the transit server via the predefined network is characterized in that it comprises: detect whether the first intercom terminal is connected to the predefined network successfully; and uploading the voice data in the upload queue to the transit server via the predefined network when the first intercom terminal is successfully connected to the predefined network. receiving voice data collected by a first intercom terminal (S101, S301, S401); storing the voice data collected to a predefined upload queue (S302, S403); detecting whether the size of the voice data collected reaches a predefined threshold (S102, S303); and uploading the voice data collected to a transit server via a predefined network when the size of the voice data collected reaches the predefined threshold, or when the voice data collected contains a voice message terminator; wherein uploading the voice data collected to the transit server via the predefined network is characterized in that it comprises: detect whether the first intercom terminal is connected to the predefined network successfully; and uploading the voice data in the upload queue to the transit server via the predefined network when the first intercom terminal is successfully connected to the predefined network. detect whether the first intercom terminal is connected to the predefined network successfully; and uploading the voice data in the upload queue to the transit server via the predefined network when the first intercom terminal is successfully connected to the predefined network.
A method for accelerating delivery of a computing environment, comprising an application and data file of a format usable by the application, from a server to a remote client, the method comprising the steps of: receiving, by the server, a request from the remote client to execute the application, the remote client and server communicating via an appliance; streaming, by the server, to the remote client the application for execution; determining, by the appliance, that the application is capable of being accelerated; transmitting, by the appliance, in response to the determination, an acceleration program to the remote client; identifying, by the server, a data file of a format usable by the application; transmitting, by the server, the identified data file for access by the streamed application; and accelerating, by the appliance, the transmission of the data file to the remote client; wherein the acceleration program on the remote client accelerates communications between the remote client and the server. receiving, by the server, a request from the remote client to execute the application, the remote client and server communicating via an appliance; streaming, by the server, to the remote client the application for execution; determining, by the appliance, that the application is capable of being accelerated; transmitting, by the appliance, in response to the determination, an acceleration program to the remote client; identifying, by the server, a data file of a format usable by the application; transmitting, by the server, the identified data file for access by the streamed application; and accelerating, by the appliance, the transmission of the data file to the remote client; wherein the acceleration program on the remote client accelerates communications between the remote client and the server.
A method for producing synthetic quartz glass, comprising the steps of: (a) providing a liquid SiO 2 feedstock material, which contains octamethylcyclotetrasiloxane D4 as the main component, (b) vaporizing the SiO 2 feedstock material into a feedstock material vapor, (c) converting the feedstock material vapor into SiO 2 particles, (d) depositing the SiO 2 particles on a deposition surface so as to form a porous SiO 2 soot body, (e) vitrifying the SiO 2 soot body so as to form the synthetic quartz glass, characterized in that the liquid feedstock material contains additional components comprising hexamethylcyclotrisiloxane D3 and the linear homolog thereof with a weight fraction mD3, dodecamethylcyclohexasiloxane D6 and the linear homolog thereof with a weight fraction mD6, and tetradecamethylcycloheptasiloxane D7 and/or hexadecamethylcyclooctasiloxane D8 and the linear homologs thereof with a weight fraction m(D7 and/or D8), wherein the weight ratio mD3/mD6 is in a range between 0.05 and 90 and the weight fraction m(D7 and/or D8) is at least 20 wt. ppm. (a) providing a liquid SiO 2 feedstock material, which contains octamethylcyclotetrasiloxane D4 as the main component, (b) vaporizing the SiO 2 feedstock material into a feedstock material vapor, (c) converting the feedstock material vapor into SiO 2 particles, (d) depositing the SiO 2 particles on a deposition surface so as to form a porous SiO 2 soot body, (e) vitrifying the SiO 2 soot body so as to form the synthetic quartz glass, characterized in that the liquid feedstock material contains additional components comprising hexamethylcyclotrisiloxane D3 and the linear homolog thereof with a weight fraction mD3, dodecamethylcyclohexasiloxane D6 and the linear homolog thereof with a weight fraction mD6, and tetradecamethylcycloheptasiloxane D7 and/or hexadecamethylcyclooctasiloxane D8 and the linear homologs thereof with a weight fraction m(D7 and/or D8), wherein the weight ratio mD3/mD6 is in a range between 0.05 and 90 and the weight fraction m(D7 and/or D8) is at least 20 wt. ppm.
An aqueous passivation composition for the treatment of zinc or zinc alloy coatings, said composition having a pH of from 6.5 to 9 and comprising, based on the weight of the composition: from 5 to 60 wt.% of a) at least one base polymer selected from acrylic polymers and non-ionic polyurethane polymers; from 0.1 to 2.5 wt.% of b) trivalent Cr ions, calculated as Cr; c) ascorbic acid; from 0.1 to 2.5 wt.% of d) at least one aluminium compound selected from the group consisting of: aluminium hydroxide; aluminium metahydroxide; aluminium trichloride; aluminium alcoholates; aluminium glycolates; aluminium tris(β-ketones); aluminum tris(β-ketoesters); aluminium soaps; and, aluminium carboxylates; and, up to 10 wt.% of e) at least one finely divided wax, wherein said composition is characterized in that it is substantially free of nitrate anions and is substantially free of hexavalent chromium (Cr). from 5 to 60 wt.% of a) at least one base polymer selected from acrylic polymers and non-ionic polyurethane polymers; from 0.1 to 2.5 wt.% of b) trivalent Cr ions, calculated as Cr; c) ascorbic acid; from 0.1 to 2.5 wt.% of d) at least one aluminium compound selected from the group consisting of: aluminium hydroxide; aluminium metahydroxide; aluminium trichloride; aluminium alcoholates; aluminium glycolates; aluminium tris(β-ketones); aluminum tris(β-ketoesters); aluminium soaps; and, aluminium carboxylates; and, up to 10 wt.% of e) at least one finely divided wax,
A method of determining amplitude of reed vibration for an air jet loom, wherein the air jet loom determines the amplitude of the reed vibration that is vibration of a reed of the air jet loom based on detected signals (V1, V2, V3, V4) detected by a sensor for determining the amplitude of the reed vibration, wherein the sensor for determining the amplitude of the reed vibration is a reflection optical sensor and wherein the amplitude of the reed vibration is determined based on amplitude of a signal waveform (S1, S2) contained in a detected signal detected during a period when no weft yarn is present in a weft passage among the detected signals (V1, V2, V3, V4) detected by the sensor for determining the amplitude of the reed vibration, characterized in that the amplitude of the reed vibration is determined within a weaving width in a direction of weft insertion by disposing the sensor for determining the amplitude of the reed vibration within the weaving width such that the sensor is insertable into a shed between warp yarns and retractable from the shed between the warp yarns.
A flextensional transducer for underwater operation, comprising a driving element and a stave, wherein the stave; is made from a material with elastic properties; and has a porous structure, characterized in that the porous structure of the stave comprises an ordered but non-periodic lattice.
An effective amount of a peptide consisting of an amino acid sequence represented by LSFPTTKTYFPHFDLSHGSA (SEQ ID NO: I) or LSFPTTKTYF (SEQ ID NO:2) and conservative amino acid substitutions thereof or a pharmaceutical composition comprising a peptide consisting of an amino acid sequence represented by LSFPTTKTYFPHFDLSHGSA (SEQ ID NO: I) or LSFPTTKTYF(SEQ ID NO:2) and conservative amino acid substitutions thereof and a physiologically acceptable carrier, for use to increase nitric oxide.
Air-conditioning installation for a motor vehicle, comprising a compressor, a condenser, a refrigerant which is not CO 2, in particular R134a, an external heat exchanger through which a fluid other than the refrigerant can pass so as to provide an exchange of heat between this fluid and the refrigerant, and an internal heat exchanger comprising an outer tube and an inner tube arranged inside the outer tube so as to delimit a first flow path between the outer tube and the inner tube and a second flow path inside the inner tube, the inner tube is provided on both its outer and inner sides with heat-conducting ribs (30, 32, 34), characterized in that the heat-conducting ribs (32, 34) end on the inner side of the inner tube at a certain distance from the median axis of the inner tube, and in that each side of the heat exchanger is provided with a connection block which is provided with a high-pressure port and with a low-pressure port, at least one of the ports leading to a damping chamber which is created in the connection block, and in that the heat-conducting ribs arranged on the outer side of the inner tube are arranged in the first flow path and the heat-conducting ribs (32, 34) arranged on the inner side of the inner tube are arranged in the second flow path, and the inner tube has, on its inner side, a first and a second type of heat-conducting rib (32, 34), the heat-conducting ribs of the first type extending further towards the median axis of the inner tube than the heat-conducting ribs of the second type, and a damping chamber is created in the connection block on the side of the inlet of the inner heat exchanger and in that one on the side of the outlet of the inner heat exchanger, the two damping chambers having different internal shapes and/or volumes, thus making it possible to optimally damp two different natural frequencies.
A first vehicle unit (10, 20, 30) couplable to a second vehicle unit (10, 20, 30) using a solid coupling to form a vehicle combination, which comprises one powered vehicle unit and one or more non-powered vehicle units, the first vehicle comprising a transceiver (11, 21, 31) configured to establish a sidelink (S12, S23) to a transceiver (11, 21, 31) of the second vehicle unit, wherein the transceivers are assisted by a radio access network to establish the sidelink, wherein the first vehicle unit is configured to perform an automatic coupling procedure for coupling the first vehicle unit to the second vehicle unit using a solid coupling, which automatic coupling procedure includes one or more of: verification that powertrain and braking systems are operable, verification that no humans or physical obstacles are present in the vicinity of the first and second vehicle units, movement of the first vehicle into an approximate coupling position, movement of the first vehicle into an accurate coupling position, extension of a drawbar, closing of coupling means, establishment of electric connections between the vehicle units, establishment of data connections between the vehicle units, establishment of pneumatic power lines between the vehicle units, wherein the sidelink is established prior to completion of the coupling procedure, and wherein the coupling procedure is interactively controlled on the basis of measurement data and sensor data exchanged over the sidelink. the first vehicle comprising a transceiver (11, 21, 31) configured to establish a sidelink (S12, S23) to a transceiver (11, 21, 31) of the second vehicle unit, wherein the transceivers are assisted by a radio access network to establish the sidelink, wherein the first vehicle unit is configured to perform an automatic coupling procedure for coupling the first vehicle unit to the second vehicle unit using a solid coupling, which automatic coupling procedure includes one or more of: verification that powertrain and braking systems are operable, verification that no humans or physical obstacles are present in the vicinity of the first and second vehicle units, movement of the first vehicle into an approximate coupling position, movement of the first vehicle into an accurate coupling position, extension of a drawbar, closing of coupling means, establishment of electric connections between the vehicle units, establishment of data connections between the vehicle units, establishment of pneumatic power lines between the vehicle units, wherein the sidelink is established prior to completion of the coupling procedure, and wherein the coupling procedure is interactively controlled on the basis of measurement data and sensor data exchanged over the sidelink.