mhurhangee/ep-ind-claims huggingface dataset:
Avalanche photodiode-type semiconductor structure intended to receive electromagnetic radiation in a given wavelength and comprising: - a first semiconductor zone, called an absorption zone, with a first type of conductivity having a first longitudinal face intended to receive the electromagnetic radiation and a second face opposite the first face, said first zone being made of mercury-cadmium telluride of the Cd x Hg 1-x Te type with a cadmium proportion x that is varied, - at least one second semiconductor zone, called a multiplication zone, in contact on a first longitudinal face with the second face of the first zone, the second zone having a majority carrier concentration lower than that of the first zone, said second zone being adapted so as to provide a multiplication of carriers by impact ionization, - a third semiconductor zone, called a collection zone, in contact with the second zone, said third zone having a second type of conductivity opposite the first type of conductivity and having a majority carrier concentration higher than that of the second semiconductor zone, the structure being characterized in that the first zone comprises a doping element providing at least one majority carrier corresponding to the first type of conductivity, of which the concentration is varied alternately in a direction substantially perpendicular to the first longitudinal face between a so-called low concentration and a so-called high concentration. - a first semiconductor zone, called an absorption zone, with a first type of conductivity having a first longitudinal face intended to receive the electromagnetic radiation and a second face opposite the first face, said first zone being made of mercury-cadmium telluride of the Cd x Hg 1-x Te type with a cadmium proportion x that is varied, - at least one second semiconductor zone, called a multiplication zone, in contact on a first longitudinal face with the second face of the first zone, the second zone having a majority carrier concentration lower than that of the first zone, said second zone being adapted so as to provide a multiplication of carriers by impact ionization, - a third semiconductor zone, called a collection zone, in contact with the second zone, said third zone having a second type of conductivity opposite the first type of conductivity and having a majority carrier concentration higher than that of the second semiconductor zone, the structure being characterized in that the first zone comprises a doping element providing at least one majority carrier corresponding to the first type of conductivity, of which the concentration is varied alternately in a direction substantially perpendicular to the first longitudinal face between a so-called low concentration and a so-called high concentration.
An electronic device operation method, applied to an electronic device, wherein the electronic device comprises a first touchscreen and a second touchscreen, the first touchscreen and an earpiece are located on a first surface of the electronic device, the second touchscreen is located on a second surface of the electronic device, the first surface is different from the second surface, and comprising displaying a first screen (701, 801) on the second touchscreen in response to receiving an incoming call, wherein an incoming call number, a first control, and a second control are displayed on the first screen (701, 801), and when the first control is triggered, the electronic device establishes a call with an electronic device corresponding to the incoming call number, or when the second control is triggered, the electronic device refuses to establish a call with an electronic device corresponding to the incoming call number; and displaying prompt information (705, 802) on the second touchscreen, wherein the prompt information (705, 802) is used to prompt a user to answer the incoming call by using the earpiece on the first surface, wherein the method characterized by comprising disabling a touch function of the second touchscreen within a second preset time after the prompt information (705, 802) is displayed on the second touchscreen. displaying a first screen (701, 801) on the second touchscreen in response to receiving an incoming call, wherein an incoming call number, a first control, and a second control are displayed on the first screen (701, 801), and when the first control is triggered, the electronic device establishes a call with an electronic device corresponding to the incoming call number, or when the second control is triggered, the electronic device refuses to establish a call with an electronic device corresponding to the incoming call number; and displaying prompt information (705, 802) on the second touchscreen, wherein the prompt information (705, 802) is used to prompt a user to answer the incoming call by using the earpiece on the first surface, wherein the method characterized by comprising disabling a touch function of the second touchscreen within a second preset time after the prompt information (705, 802) is displayed on the second touchscreen.
A process for producing isoprene, which comprises continuously or intermittently supplying isobutylene and/or t-butanol, formaldehyde and water into an acidic aqueous solution, and reacting the reaction mixture while distilling away a mixture comprising produced isoprene, water, unreacted starting materials and other low boiling point components from this reaction mixture to the outside of the reaction system, wherein said reaction is carried out while controlling the concentration of high boiling point byproducts, which is produced and accumulated in said reaction mixture, to fall within the range of 0.5 - 40 mass%, wherein the concentration of the high boiling point byproducts in the reaction mixture is controlled to fall within said range by forming outlets for taking out the reaction mixture in the bottom and the side wall of a reactor containing the reaction mixture, taking out a part of the reaction mixture from the outlets, and separating and removing at least a part of the high boiling point byproducts from the reaction mixture, and then introducing the remaining reaction mixture into the reactor.
A rotorcraft with at least one main rotor and a fuselage, comprising: a tail boom connected to the fuselage, the tail boom extending in a longitudinal direction from the fuselage toward a duct-type portion; a shroud provided at the duct-type portion and forming a transverse duct comprising an air inlet region and an air outlet region, the transverse duct comprising a circumferential direction and a longitudinal extension oriented at least essentially perpendicular to the circumferential direction and at least essentially perpendicular to the longitudinal direction of the tail boom; at least one ducted tail rotor rotatably arranged in the transverse duct; and an integral stabilizer arrangement (5, 9, 10) mounted to the shroud, the integral stabilizer arrangement (5, 9, 10) being embodied in box configuration and arranged laterally on a side of the shroud on which the air inlet region of the transverse duct is arranged. a tail boom connected to the fuselage, the tail boom extending in a longitudinal direction from the fuselage toward a duct-type portion; a shroud provided at the duct-type portion and forming a transverse duct comprising an air inlet region and an air outlet region, the transverse duct comprising a circumferential direction and a longitudinal extension oriented at least essentially perpendicular to the circumferential direction and at least essentially perpendicular to the longitudinal direction of the tail boom; at least one ducted tail rotor rotatably arranged in the transverse duct; and an integral stabilizer arrangement (5, 9, 10) mounted to the shroud, the integral stabilizer arrangement (5, 9, 10) being embodied in box configuration and arranged laterally on a side of the shroud on which the air inlet region of the transverse duct is arranged.
A lid sized and configured to be attached to a container, the lid comprising: a body; a spout extending outwardly from the body; a first opening disposed within the spout, the first opening providing a first pathway to an attached container; a second opening disposed within the spout; and a conduit removably connected to the second opening, the second opening and the conduit providing a second pathway to the attached container, the first and second openings sharing a common wall, an upper portion of the common wall separating the first opening and the second opening is angled forwardly toward the second opening. a body; a spout extending outwardly from the body; a first opening disposed within the spout, the first opening providing a first pathway to an attached container; a second opening disposed within the spout; and a conduit removably connected to the second opening, the second opening and the conduit providing a second pathway to the attached container, the first and second openings sharing a common wall, an upper portion of the common wall separating the first opening and the second opening is angled forwardly toward the second opening.
An active molecule delivery system comprising: a plurality of thermoplastic microcells (37, 38, 39) filled with an aqueous formulation comprising hydrophilic active molecules, wherein each microcell includes walls and an opening, the microcells including a first microcell filled with a first aqueous formulation and a second microcell filled with a second aqueous formulation different from the first aqueous formulation; a hydrophobic sealing layer spanning the opening; and a biocompatible adhesive, the active molecule delivery system being characterized by first and second porous diffusion layers disposed between the hydrophobic sealing layer and the biocompatible adhesive, the first porous diffusion layer being disposed adjacent the first microcell and having a first porosity and the second porous diffusion layer being disposed adjacent the second microcell and having a second porosity different from the first porosity. a plurality of thermoplastic microcells (37, 38, 39) filled with an aqueous formulation comprising hydrophilic active molecules, wherein each microcell includes walls and an opening, the microcells including a first microcell filled with a first aqueous formulation and a second microcell filled with a second aqueous formulation different from the first aqueous formulation; a hydrophobic sealing layer spanning the opening; and a biocompatible adhesive, the active molecule delivery system being characterized by first and second porous diffusion layers disposed between the hydrophobic sealing layer and the biocompatible adhesive, the first porous diffusion layer being disposed adjacent the first microcell and having a first porosity and the second porous diffusion layer being disposed adjacent the second microcell and having a second porosity different from the first porosity.
A delivery device, comprising: an ablation assembly including an energy emitter assembly including a conduit and an electrode coupled to conduit, the electrode configured to output energy to ablate targeted tissue of a bronchial tree and through which a coolant is capable of flowing through the conduit so as to cool a tissue-contacting portion of the energy emitter assembly; and a deployable element movable from a collapsed state to an expanded state to bring the tissue-contacting portion of the energy emitter assembly into contact with an airway wall of the bronchial tree; the deployable element comprising an inflatable balloon, and including a cooling section configured to contain the coolant and movable into contact with the airway wall so as to cool tissue adjacent to the tissue-contacting portion of the energy emitter assembly when energy is being outputted therefrom, wherein a section of the conduit is configured to wrap around a portion of the surface of the deployable element when in the expanded state; and an elongate shaft coupled to the ablation assembly and through which the coolant is capable of flowing to the ablation assembly. an ablation assembly including an energy emitter assembly including a conduit and an electrode coupled to conduit, the electrode configured to output energy to ablate targeted tissue of a bronchial tree and through which a coolant is capable of flowing through the conduit so as to cool a tissue-contacting portion of the energy emitter assembly; and a deployable element movable from a collapsed state to an expanded state to bring the tissue-contacting portion of the energy emitter assembly into contact with an airway wall of the bronchial tree; the deployable element comprising an inflatable balloon, and including a cooling section configured to contain the coolant and movable into contact with the airway wall so as to cool tissue adjacent to the tissue-contacting portion of the energy emitter assembly when energy is being outputted therefrom, wherein a section of the conduit is configured to wrap around a portion of the surface of the deployable element when in the expanded state; and an elongate shaft coupled to the ablation assembly and through which the coolant is capable of flowing to the ablation assembly.
A powder coating facility - wherein a coupling for connecting lines is provided, - wherein the coupling has a first coupling disc comprising first line connectors and a second coupling disc comprising second line connectors, - wherein the coupling has a first drive in order to be able to move the two coupling discs (135; 136) axially relative to one another, - wherein the coupling has a second drive in order to be able to rotate the two coupling discs (135; 136) relative to one another, - wherein a powder conveyor (1.1) is provided, which is connected to one of the first line connectors of the coupling via a powder line, - wherein a powder applicator is provided, which is connected to one of the second line connectors of the coupling via a further powder line, - wherein a compressed air purging line is provided, which is connected to one of the second line connectors of the coupling, and - wherein a further compressed air purging line is provided, which is connected to one of the first line connectors of the coupling. - wherein a coupling for connecting lines is provided, - wherein the coupling has a first coupling disc comprising first line connectors and a second coupling disc comprising second line connectors, - wherein the coupling has a first drive in order to be able to move the two coupling discs (135; 136) axially relative to one another, - wherein the coupling has a second drive in order to be able to rotate the two coupling discs (135; 136) relative to one another, - wherein a powder conveyor (1.1) is provided, which is connected to one of the first line connectors of the coupling via a powder line, - wherein a powder applicator is provided, which is connected to one of the second line connectors of the coupling via a further powder line, - wherein a compressed air purging line is provided, which is connected to one of the second line connectors of the coupling, and - wherein a further compressed air purging line is provided, which is connected to one of the first line connectors of the coupling.
A videoconferencing system, comprising: at least one display having a top and a bottom; a plurality of top loudspeakers (162-A, 164) arranged toward the top of the at least one display; a plurality of bottom loudspeakers (162-B, 166) arranged toward the bottom of the at least one display; and a control unit operatively coupled to the top loudspeakers (162-A, 164) and the bottom loudspeakers (162-B, 166), the control unit being configured to: route first video to a first display portion of the at least one display; route first audio associated with the first video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the first display portion; route second video to a second display portion of the at least one display; and route second audio associated with the second video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the second display portion; characterized in that: to route the first and second audio, the control unit is configured to emphasize lower frequencies of a portion of the first and second audio routed to the top loudspeakers (162-A, 164) and conversely emphasize higher frequencies of the portion of the first and second audio routed to the bottom loudspeakers (162-B, 166). at least one display having a top and a bottom; a plurality of top loudspeakers (162-A, 164) arranged toward the top of the at least one display; a plurality of bottom loudspeakers (162-B, 166) arranged toward the bottom of the at least one display; and a control unit operatively coupled to the top loudspeakers (162-A, 164) and the bottom loudspeakers (162-B, 166), the control unit being configured to: route first video to a first display portion of the at least one display; route first audio associated with the first video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the first display portion; route second video to a second display portion of the at least one display; and route second audio associated with the second video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the second display portion; route first video to a first display portion of the at least one display; route first audio associated with the first video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the first display portion; route second video to a second display portion of the at least one display; and route second audio associated with the second video to any one or both of the top and bottom loudspeakers (162-AB, 164, 166) arranged relative to the second display portion; characterized in that: to route the first and second audio, the control unit is configured to emphasize lower frequencies of a portion of the first and second audio routed to the top loudspeakers (162-A, 164) and conversely emphasize higher frequencies of the portion of the first and second audio routed to the bottom loudspeakers (162-B, 166).
A method for transmitting, by a User Equipment, UE, synchronization signals for a Device-to-Device, D2D, link in a wireless communication system, the method comprising: transmitting a Primary Synchronization Signal for D2D link, PD2DSS, at two consecutive Single Carrier-Frequency Division Multiple Access, SC-FDMA, symbols in a first slot of a subframe; transmitting a Secondary Synchronization Signal for D2D link, SD2DSS, at two consecutive SC-FDMA symbols in a second slot of the subframe; transmitting a D2D signal associated with DeModulation Reference Signals, DM-RSs, at a SC-FDMA symbol other than a last SC-FDMA symbol of the subframe,wherein the two consecutive SC-FDMA symbols in the first slot are located apart from the two consecutive SC-FDMA symbols in the second slot, wherein the DM-RSs are mapped to two SC-FDMA symbols in the subframe, and wherein each of the two SC-FDMA symbols to which the DM-RSs are mapped is consecutive to each of the two consecutive SC-FDMA symbols in the first slot and the two consecutive SC-FDMA symbols in the second slot, wherein when a normal cyclic prefix is applied: the PD2DSS is mapped to a second and a third SC-FDMA symbols in the first slot of the subframe, and the SD2DSS is mapped to a fifth and a sixth SC-FDMA symbols in the second slot of the subframe, the DM-RSs are mapped to a fourth SC-FDMA symbol of the first slot and a fourth SC-FDMA symbol of the second slot. transmitting a Primary Synchronization Signal for D2D link, PD2DSS, at two consecutive Single Carrier-Frequency Division Multiple Access, SC-FDMA, symbols in a first slot of a subframe; transmitting a Secondary Synchronization Signal for D2D link, SD2DSS, at two consecutive SC-FDMA symbols in a second slot of the subframe; transmitting a D2D signal associated with DeModulation Reference Signals, DM-RSs, at a SC-FDMA symbol other than a last SC-FDMA symbol of the subframe,wherein the two consecutive SC-FDMA symbols in the first slot are located apart from the two consecutive SC-FDMA symbols in the second slot, wherein the DM-RSs are mapped to two SC-FDMA symbols in the subframe, and wherein each of the two SC-FDMA symbols to which the DM-RSs are mapped is consecutive to each of the two consecutive SC-FDMA symbols in the first slot and the two consecutive SC-FDMA symbols in the second slot, wherein when a normal cyclic prefix is applied: the PD2DSS is mapped to a second and a third SC-FDMA symbols in the first slot of the subframe, and the SD2DSS is mapped to a fifth and a sixth SC-FDMA symbols in the second slot of the subframe, the DM-RSs are mapped to a fourth SC-FDMA symbol of the first slot and a fourth SC-FDMA symbol of the second slot. the PD2DSS is mapped to a second and a third SC-FDMA symbols in the first slot of the subframe, and the SD2DSS is mapped to a fifth and a sixth SC-FDMA symbols in the second slot of the subframe, the DM-RSs are mapped to a fourth SC-FDMA symbol of the first slot and a fourth SC-FDMA symbol of the second slot.
Overvoltage protection system for a single or multi-phase power supply network, being embodied from two parallel-connected respectively triggered spark gaps (FS1; FS2), wherein the spark gaps (FS1, FS2) in each case comprise two main electrodes and an ignition electrode that is connected to one of the main electrodes via a respective actuation (A; B), characterised in that for a targeted switching as required of a further spark gap of the two parallel-connected spark gaps (FS1; FS2) the ignition electrodes of the spark gaps (FS1; FS2) are connected via a voltage-dependent switching element in such a manner that the further spark gap then ignites if the response value from the series circuit of the voltage-dependent switching element and the ignition gap of the ignition electrode of the further spark gap is achieved.
A reader, comprising: an antenna for communicating with a wireless tag; characterized by further comprising: a processor configured to measure a time when a radio wave is received on a predetermined channel during a carrier sensing time, the carrier sensing time being a time when the wireless tag is not communicating; and a memory storage configured to store a channel report indicating the time when the radio wave is received; wherein the processor is configured to acquire an intensity value of the radio wave received on the predetermined channel, and the channel report indicates the intensity value. an antenna for communicating with a wireless tag; characterized by further comprising: a processor configured to measure a time when a radio wave is received on a predetermined channel during a carrier sensing time, the carrier sensing time being a time when the wireless tag is not communicating; and a memory storage configured to store a channel report indicating the time when the radio wave is received; a processor configured to measure a time when a radio wave is received on a predetermined channel during a carrier sensing time, the carrier sensing time being a time when the wireless tag is not communicating; and a memory storage configured to store a channel report indicating the time when the radio wave is received; the processor is configured to acquire an intensity value of the radio wave received on the predetermined channel, and the channel report indicates the intensity value.