mhurhangee/ep-ind-claims huggingface dataset:
Device for sealing in the longitudinal direction and in the butt joint region of a first wing, movable on a running rail, as a sliding wing or movable lifting-sliding wing of a window or a door, and a second wing, offset to the surface of the first and positioned further to the outer side, as a fixed section frame of the fixed section or a likewise movable wing, as a sliding wing or movable lifting-sliding wing, with a sealing path, which seals the butt joint region or transition region of the wings (3, 4), and with at least one sealing strip arranged on the outer side in the longitudinal or movement direction and parallel to the running rail at the first sliding wing, which is intended to seal the sliding wing in the transverse direction, wherein the sealing path, formed as one piece, comprises a cut-out, which extends from an outer side to the surface middle of the sealing path, and in the installation position comprises sealing strips in the longitudinal or movement direction of the sliding wing, characterized in that at least one shoulder of the cut-out, pointing towards the outer side of the sealing path, when the sliding wing is closed, comes in contact with at least one edge surface of the sealing strip, and embeds the sealing strip with the material thickness of the sealing path, and wherein the sealing path, configured as a flat seal, surrounds full-surface at least two sealing layers (35, 36) with different materials.
A method for processing a card in a card reader, comprising: detecting a state of the card reader in a realtime manner, when the card is used by a user to carry out a business transaction; generating, by the card reader, an event that there is a counterfeit card in a card entrance slot, and sending the event to a self-service business system in a realtime manner, once the counterfeit card is detected in a card processing slot of the card reader, so as to enable the self-service business system to provide warning information, suspend the business and enter a procedure of user authentication; and continuing the business, in a case that the user authentication performed in a preset period of time is successful. detecting a state of the card reader in a realtime manner, when the card is used by a user to carry out a business transaction; generating, by the card reader, an event that there is a counterfeit card in a card entrance slot, and sending the event to a self-service business system in a realtime manner, once the counterfeit card is detected in a card processing slot of the card reader, so as to enable the self-service business system to provide warning information, suspend the business and enter a procedure of user authentication; and continuing the business, in a case that the user authentication performed in a preset period of time is successful.
A method for cycling autonomous underwater vehicles, AUVs, that record seismic signals during a marine seismic survey, the method comprising: deploying plural current AUVs on the ocean bottom; recording the seismic signals during the marine seismic survey with the plural current AUVs; releasing from an underwater base a new AUV to replace a corresponding current AUV from the plural current AUVs; recovering the corresponding current AUV; and continuing to record the seismic signals with the new AUV. deploying plural current AUVs on the ocean bottom; recording the seismic signals during the marine seismic survey with the plural current AUVs; releasing from an underwater base a new AUV to replace a corresponding current AUV from the plural current AUVs; recovering the corresponding current AUV; and continuing to record the seismic signals with the new AUV.
A method of processing a substrate, comprising: exposing a substrate to a self-assembled monolayer ("SAM") molecule for a first period of time to achieve selective deposition of a SAM on a first material in a first processing chamber, wherein the substrate comprises an exposed first material and an exposed second material; transferring the substrate to a second processing chamber; exposing the substrate to a hydroxyl moiety formed from water vapor in the second processing chamber for a second period of time from 1 second to 600 seconds; repeating the exposing the substrate to a SAM molecule in the first processing chamber and the exposing the substrate to the hydroxyl moiety formed from water vapor in the second processing chamber in a time ratio of between 1:1 and 100:1, respectively; after performing the repeating, exposing the substrate to the SAM molecule in the first processing chamber; selectively depositing a third material on the exposed second material; and removing the SAM from the first material. exposing a substrate to a self-assembled monolayer ("SAM") molecule for a first period of time to achieve selective deposition of a SAM on a first material in a first processing chamber, wherein the substrate comprises an exposed first material and an exposed second material; transferring the substrate to a second processing chamber; exposing the substrate to a hydroxyl moiety formed from water vapor in the second processing chamber for a second period of time from 1 second to 600 seconds; repeating the exposing the substrate to a SAM molecule in the first processing chamber and the exposing the substrate to the hydroxyl moiety formed from water vapor in the second processing chamber in a time ratio of between 1:1 and 100:1, respectively; after performing the repeating, exposing the substrate to the SAM molecule in the first processing chamber; selectively depositing a third material on the exposed second material; and removing the SAM from the first material.
A microwave ablation needle head, comprising: an outer tube, wherein the outer tube comprises a first branch tube and a second branch tube provided sequentially in a direction from a distal end to a proximal end of the outer tube, and an end of the first branch tube away from the second branch tube forms a distal end of the outer tube, wherein a material of the first branch tube is a ceramic material or polymer material; a cooling tube, wherein the cooling tube is arranged in the outer tube, the cooling tube and the outer tube are spaced apart from each other, and a first cooling flow channel is formed between the cooling tube and the outer tube, wherein a material of the cooling tube is a polymer material; and a distal end of the cooling tube is located inside a distal end of the first branch tube to form a mounting space in a distal region of the cooling tube; a coaxial cable, wherein the coaxial cable is arranged in the cooling tube, the coaxial cable is spaced apart from the cooling tube, and a second cooling flow channel is formed between the cooling tube and the coaxial cable; and a distal end of the coaxial cable is located in the distal end of the cooling tube; and an electrode, wherein at least part of the electrode is located in the mounting space, and is electrically connected to the distal end of the coaxial cable; characterized in that the microwave ablation needle head further comprises a sensing element, which is arranged on an outer peripheral wall of the first branch tube and configured to sense a part of radiation current of the coaxial cable to enhance a radiation capability. an outer tube, wherein the outer tube comprises a first branch tube and a second branch tube provided sequentially in a direction from a distal end to a proximal end of the outer tube, and an end of the first branch tube away from the second branch tube forms a distal end of the outer tube, wherein a material of the first branch tube is a ceramic material or polymer material; a cooling tube, wherein the cooling tube is arranged in the outer tube, the cooling tube and the outer tube are spaced apart from each other, and a first cooling flow channel is formed between the cooling tube and the outer tube, wherein a material of the cooling tube is a polymer material; and a distal end of the cooling tube is located inside a distal end of the first branch tube to form a mounting space in a distal region of the cooling tube; a coaxial cable, wherein the coaxial cable is arranged in the cooling tube, the coaxial cable is spaced apart from the cooling tube, and a second cooling flow channel is formed between the cooling tube and the coaxial cable; and a distal end of the coaxial cable is located in the distal end of the cooling tube; and an electrode, wherein at least part of the electrode is located in the mounting space, and is electrically connected to the distal end of the coaxial cable; characterized in that the microwave ablation needle head further comprises a sensing element, which is arranged on an outer peripheral wall of the first branch tube and configured to sense a part of radiation current of the coaxial cable to enhance a radiation capability.
A solid food in which a core food is coated with a fat/oil composition, wherein either (i) the fat/oil composition contains a finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber or (ii) a surface of the fat/oil composition is further coated with a finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber, wherein the inedible part is one or more selected from the group consisting of a core of corn, a seed and a calyx of paprika, a seed and guts of pumpkin, peel of beet, a stem and a leaf of broccoli, a sheath of green soybean, a calyx of tomato, a stump of spinach, a petiole base of kale, a sheath of pea, a sheath and a seed coat of broad bean, a root apex and a petiole base of carrot, and peel and ends of sweet potato, and wherein a ratio of a total mass of a mass of the finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber and a mass of the fat/oil composition to a surface area of the core food is 0.1 g or more per 100 cm 2, and/or a ratio of a mass of the finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber to a surface area of the core food is 0.03 g or more per 100 cm 2. wherein either (i) the fat/oil composition contains a finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber or (ii) a surface of the fat/oil composition is further coated with a finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber, wherein the inedible part is one or more selected from the group consisting of a core of corn, a seed and a calyx of paprika, a seed and guts of pumpkin, peel of beet, a stem and a leaf of broccoli, a sheath of green soybean, a calyx of tomato, a stump of spinach, a petiole base of kale, a sheath of pea, a sheath and a seed coat of broad bean, a root apex and a petiole base of carrot, and peel and ends of sweet potato, and wherein a ratio of a total mass of a mass of the finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber and a mass of the fat/oil composition to a surface area of the core food is 0.1 g or more per 100 cm 2, and/or a ratio of a mass of the finely pulverized product of an edible part and an inedible part of a foodstuff containing an insoluble dietary fiber to a surface area of the core food is 0.03 g or more per 100 cm 2.
A head-wearable hearing device comprising: a housing, a microphone arrangement configured to generate a microphone signal in response to incoming sound, a digital signal processor configured to process the microphone signal in accordance with one or more audio processing algorithms to generate a processed output signal, a miniature loudspeaker comprising a signal input connected to the processed output signal to generate a corresponding processed sound signal for transmission to the user's ear canal, an impact sensor responsive to mechanical impact of the housing to generate a corresponding impact pulse, characterized by: a reset circuit configured to generate, and apply, a reset signal to the digital signal processor to place the digital signal processor in a predetermined logic state, wherein said reset circuit is configured to generate the reset signal in response to the impact pulse generated by the impact sensor, wherein the impact sensor is embodied as the miniature loudspeaker such that a diaphragm and an electrodynamic motor drive of the miniature loudspeaker function as the impact sensor a housing, a microphone arrangement configured to generate a microphone signal in response to incoming sound, a digital signal processor configured to process the microphone signal in accordance with one or more audio processing algorithms to generate a processed output signal, a miniature loudspeaker comprising a signal input connected to the processed output signal to generate a corresponding processed sound signal for transmission to the user's ear canal, an impact sensor responsive to mechanical impact of the housing to generate a corresponding impact pulse, characterized by: a reset circuit configured to generate, and apply, a reset signal to the digital signal processor to place the digital signal processor in a predetermined logic state, wherein said reset circuit is configured to generate the reset signal in response to the impact pulse generated by the impact sensor, wherein the impact sensor is embodied as the miniature loudspeaker such that a diaphragm and an electrodynamic motor drive of the miniature loudspeaker function as the impact sensor a reset circuit configured to generate, and apply, a reset signal to the digital signal processor to place the digital signal processor in a predetermined logic state, wherein said reset circuit is configured to generate the reset signal in response to the impact pulse generated by the impact sensor, wherein the impact sensor is embodied as the miniature loudspeaker such that a diaphragm and an electrodynamic motor drive of the miniature loudspeaker function as the impact sensor
A method of manufacturing a semiconductor light emitting module into which a plurality of semiconductor light emitting elements are integrally inserted, comprising the steps of: disposing the plurality of semiconductor light emitting elements on a high-reflection plate formed by forming a reflection-enhancing film on a flat metal plate, wherein said reflection-enhancing film is formed by forming a pure aluminum layer or a pure silver layer on said flat metal plate and depositing a titanium oxide film or a silicon oxide film thereon, wherein the plurality of semiconductor light emitting elements is mounted on a surface of said oxide film, and wherein the mount surface surrounding each of the semiconductor light emitting elements is a highly-reflective surface of the high-reflection plate, which has a reflectivity of 95% or more for light emitted by the semiconductor light emitting elements; forming an insulating film on a surface of the reflection-enhancing film of the high-reflection plate, wherein the insulating film has apertures in which the semiconductor light emitting elements are mounted and through which light emitted from the plurality of semiconductor light emitting elements is transmitted to the outside; and forming a power distribution film which is a metal film on a surface of the insulating film, the power distribution film being electrically connected to each semiconductor light emitting element and being an electrode to supply power. disposing the plurality of semiconductor light emitting elements on a high-reflection plate formed by forming a reflection-enhancing film on a flat metal plate, wherein said reflection-enhancing film is formed by forming a pure aluminum layer or a pure silver layer on said flat metal plate and depositing a titanium oxide film or a silicon oxide film thereon, wherein the plurality of semiconductor light emitting elements is mounted on a surface of said oxide film, and wherein the mount surface surrounding each of the semiconductor light emitting elements is a highly-reflective surface of the high-reflection plate, which has a reflectivity of 95% or more for light emitted by the semiconductor light emitting elements; forming an insulating film on a surface of the reflection-enhancing film of the high-reflection plate, wherein the insulating film has apertures in which the semiconductor light emitting elements are mounted and through which light emitted from the plurality of semiconductor light emitting elements is transmitted to the outside; and forming a power distribution film which is a metal film on a surface of the insulating film, the power distribution film being electrically connected to each semiconductor light emitting element and being an electrode to supply power.
A method for determining an absolute brightness of a luminescent particle, comprising: - providing a sample volume containing an ensemble of luminescent particles; - determining an absolute or a relative photoluminescence quantum yield of the particle ensemble in the sample volume; - determining an absorption cross-section or the absorption efficiency of the particles in the sample volume; - determining the absolute brightness of an individual particle based on the determined absolute photoluminescence quantum yield, the absorption cross-section or the absorption efficiency and a particle count in the sample volume, the absolute brightness being expressed by a product of the absorption cross-section of a particle σ a [cm 2] and the quantum yield Φ f measured in a particle dispersion, the luminescent particles being selected from particles in the size range of 5 nm to 5000 μm suspended or dispersed in the sample volume, and the absolute photoluminescence quantum yield and/or the absorption cross-section being determined by way of a wavelength-resolved measurement of an emission, a transmission and a reflection. - providing a sample volume containing an ensemble of luminescent particles; - determining an absolute or a relative photoluminescence quantum yield of the particle ensemble in the sample volume; - determining an absorption cross-section or the absorption efficiency of the particles in the sample volume; - determining the absolute brightness of an individual particle based on the determined absolute photoluminescence quantum yield, the absorption cross-section or the absorption efficiency and a particle count in the sample volume, the absolute brightness being expressed by a product of the absorption cross-section of a particle σ a [cm 2] and the quantum yield Φ f measured in a particle dispersion, the luminescent particles being selected from particles in the size range of 5 nm to 5000 μm suspended or dispersed in the sample volume, and the absolute photoluminescence quantum yield and/or the absorption cross-section being determined by way of a wavelength-resolved measurement of an emission, a transmission and a reflection.
A smoke detector, comprising: a housing defining a chamber for receiving ambient materials; an emitter configured to emit light into the chamber; a receiver configured to receive light reflected from the ambient materials in the chamber and generate output signals, an angular distance between the emitter and the receiver is less than 90°, wherein the angular distance between the emitter and the receiver generates a back scatter effect; and a controller configured to receive output signals from the receiver and determine whether a current condition of the chamber indicates a need to trigger an alarm, wherein the smoke detector comprises only one emitter and only one receiver, characterized in that: the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received. a housing defining a chamber for receiving ambient materials; an emitter configured to emit light into the chamber; a receiver configured to receive light reflected from the ambient materials in the chamber and generate output signals, an angular distance between the emitter and the receiver is less than 90°, wherein the angular distance between the emitter and the receiver generates a back scatter effect; and a controller configured to receive output signals from the receiver and determine whether a current condition of the chamber indicates a need to trigger an alarm, wherein the smoke detector comprises only one emitter and only one receiver, characterized in that: the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received. the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received.