mhurhangee/ep-ind-claims huggingface dataset:
A permission management method, applied to a terminal device, wherein the terminal device comprises a first display area and a second display area, and the method comprises: determining, in a case that a first application is in an installing state, whether the first application uses a first preset permission management policy or a second preset permission management policy based on a user's selection operation; when it is determined that the first application uses the first preset permission management policy, determining a target permission management policy corresponding to the first application based on a display area in which the first application is located; and controlling permission management for the first application according to the target permission management policy; wherein the first preset permission management policy is a permission management policy based on a display area, and the first preset permission management policy comprises a first permission management policy and a second permission management policy; the second preset permission management policy is a permission management policy unassociated with a display area; the target permission management policy comprises the first permission management policy corresponding to the first display area or the second permission management policy corresponding to the second display area. determining, in a case that a first application is in an installing state, whether the first application uses a first preset permission management policy or a second preset permission management policy based on a user's selection operation; when it is determined that the first application uses the first preset permission management policy, determining a target permission management policy corresponding to the first application based on a display area in which the first application is located; and controlling permission management for the first application according to the target permission management policy; wherein the first preset permission management policy is a permission management policy based on a display area, and the first preset permission management policy comprises a first permission management policy and a second permission management policy; the second preset permission management policy is a permission management policy unassociated with a display area; the target permission management policy comprises the first permission management policy corresponding to the first display area or the second permission management policy corresponding to the second display area.
An electric precipitator (100, 200) comprising: a high voltage electrode (20A, 20B) and a low voltage electrode (30A, 30D) are separated from each other, the high voltage electrode including a pair of film members made of a non-conductive material and attached to each other, and an electrode layer disposed between the pair of film members; a plurality of support members each comprising an insulating member, and mounted on one of the high voltage electrode and the low voltage electrode to allow the film members to be supported by the low voltage electrode; and characterised by a plurality of mounting holes (31A, 24B) to mount the support members, formed through one of the high and low voltage electrodes, and each of the support members includes a first support part and a mounting part formed integrally with the first support part and penetrating each of the mounting holes, and a second support part comprising a connection recess, into which a front end of the mounting part is inserted. a high voltage electrode (20A, 20B) and a low voltage electrode (30A, 30D) are separated from each other, the high voltage electrode including a pair of film members made of a non-conductive material and attached to each other, and an electrode layer disposed between the pair of film members; a plurality of support members each comprising an insulating member, and mounted on one of the high voltage electrode and the low voltage electrode to allow the film members to be supported by the low voltage electrode; and characterised by a plurality of mounting holes (31A, 24B) to mount the support members, formed through one of the high and low voltage electrodes, and each of the support members includes a first support part and a mounting part formed integrally with the first support part and penetrating each of the mounting holes, and a second support part comprising a connection recess, into which a front end of the mounting part is inserted.
A respiratory treatment device comprising: an inlet configured to receive exhaled air into the device; an outlet configured to permit exhaled air to exit the device; a blocking member moveable between a closed position where the flow of air through the device is restricted, and an open position where the flow of air through the device is less restricted; and, a biasing member (112a, 112b) configured to bias the blocking member toward the closed position, wherein a level of bias decreases as the blocking member moves from the closed position to the open position, characterized in that the blocking member is maintained in the open position once the blocking member moves to the open position. an inlet configured to receive exhaled air into the device; an outlet configured to permit exhaled air to exit the device; a blocking member moveable between a closed position where the flow of air through the device is restricted, and an open position where the flow of air through the device is less restricted; and, a biasing member (112a, 112b) configured to bias the blocking member toward the closed position, wherein a level of bias decreases as the blocking member moves from the closed position to the open position,
An interactive cord, comprising: an outer cover (104, 204) having a touch-sensitive area (130, 230) at a first longitudinal portion of the interactive cord and a non-touch-sensitive area (135, 235) at a second longitudinal portion of the interactive cord, the outer cover (104, 204) comprising a set of conductive lines (112, 212) braided together with one or more of a plurality of non-conductive lines (110, 210) at the first longitudinal portion, the set of conductive lines (112, 212) defining a plurality of intersections that each form a capacitive touchpoint (108, 208) at the touch-sensitive area (130, 230); and an inner core (105, 205) comprising at least the set of conductive lines (112, 212) and at least one of the plurality of non-conductive lines (110, 210) at the second longitudinal portion of the interactive cord. an outer cover (104, 204) having a touch-sensitive area (130, 230) at a first longitudinal portion of the interactive cord and a non-touch-sensitive area (135, 235) at a second longitudinal portion of the interactive cord, the outer cover (104, 204) comprising a set of conductive lines (112, 212) braided together with one or more of a plurality of non-conductive lines (110, 210) at the first longitudinal portion, the set of conductive lines (112, 212) defining a plurality of intersections that each form a capacitive touchpoint (108, 208) at the touch-sensitive area (130, 230); and an inner core (105, 205) comprising at least the set of conductive lines (112, 212) and at least one of the plurality of non-conductive lines (110, 210) at the second longitudinal portion of the interactive cord.
An electric machine comprising: - a closed chamber with at least one wall and enclosing a stator, a rotor and a first fluid, - a heat exchanging unit (10; 10A, 10B, 10C) stretching from the chamber through said wall and to a fluid transporting passage outside the chamber, said heat exchanging unit comprising - at least one conduit provided in a loop within the heat exchanging unit and comprising a working fluid, - a first heat transfer element inside the chamber, and - a second heat transfer element in the fluid transporting passage, - a first fluid propagating unit provided inside the chamber and configured to force the first fluid in the chamber to flow past the stator, rotor and first heat transfer element, and - a second fluid propagating unit provided in the fluid transporting passage for forcing a second fluid to flow past the second heat transfer element of the heat exchanging unit, characterized in that said conduit is provided with an evaporator channel and a condenser channel, wherein the first heat transfer element is in contact with the evaporator channel for transferring heat from the first fluid to the working fluid in said conduit via the evaporator channel, and the second heat transfer element is in contact with the condenser channel for transferring heat out of the working fluid in said conduit via the condenser channel to the second fluid; and in that the heat exchanging unit is modular, wherein each module comprises at least one conduit with a working fluid provided in a loop, a first heat transfer element and a second heat transfer element, the modules being placed after each other in the direction of flow of the first fluid and stretch through a sealed single opening in the wall. - a closed chamber with at least one wall and enclosing a stator, a rotor and a first fluid, - a heat exchanging unit (10; 10A, 10B, 10C) stretching from the chamber through said wall and to a fluid transporting passage outside the chamber, said heat exchanging unit comprising - at least one conduit provided in a loop within the heat exchanging unit and comprising a working fluid, - a first heat transfer element inside the chamber, and - a second heat transfer element in the fluid transporting passage, - at least one conduit provided in a loop within the heat exchanging unit and comprising a working fluid, - a first heat transfer element inside the chamber, and - a second heat transfer element in the fluid transporting passage, - a first fluid propagating unit provided inside the chamber and configured to force the first fluid in the chamber to flow past the stator, rotor and first heat transfer element, and - a second fluid propagating unit provided in the fluid transporting passage for forcing a second fluid to flow past the second heat transfer element of the heat exchanging unit,
An electrochemical cell assembly comprising: a first gelated ionic liquid film in contact with a first electrically conductive surface, wherein the first gelated ionic liquid film comprises a first ionic liquid encapsulated within a gel matrix; and a second gelated ionic liquid film in contact with a second electrically conductive surface, wherein the second gelated ionic liquid film comprises a second ionic liquid encapsulated within a gel matrix; wherein the first and second gelated ionic liquid films are in contact with each other, and wherein the first gelated ionic liquid film further comprises a dissolved redox species, characterized in that the dissolved redox species is a halogen for example, Cl 2, Br 2 or I 2. a first gelated ionic liquid film in contact with a first electrically conductive surface, wherein the first gelated ionic liquid film comprises a first ionic liquid encapsulated within a gel matrix; and a second gelated ionic liquid film in contact with a second electrically conductive surface, wherein the second gelated ionic liquid film comprises a second ionic liquid encapsulated within a gel matrix; wherein the first and second gelated ionic liquid films are in contact with each other, and wherein the first gelated ionic liquid film further comprises a dissolved redox species, characterized in that the dissolved redox species is a halogen for example, Cl 2, Br 2 or I 2.
A USB connector, characterized by comprising: a USB shell, an insulation spacer, and metal sheets with metal weld legs respectively, wherein, the metal sheets are installed on the insulation spacer, the metal sheets are configured to be connected to a USB interface of a personal computer, the metal weld legs are configured to be connected to a printed circuit board within an external product, and the insulation spacer is fixed in the USB shell; and the metal sheets comprise one ground pin, two signal pins and one power supply pin; the ground pin is configured with an extending resilient metal sheet in contact with the USB shell; the extending resilient metal sheet is a resilient metal sheet with a bending shape, which extends from the ground pin; wherein, the extending resilient metal sheet is integrated with the ground pin, and is in contact with the USB shell of the USB connector.
An optical measuring system for measuring a property of a paper or board web containing gypsum, the system comprising a source of infrared radiation, the source of infrared radiation configured to direct infrared radiation to the web; and at least one detector, each detector configured to detect near infrared radiation that has interacted with the web and originates from the infrared radiation source and to generate data corresponding to the detection, characterized in that the system further comprises a measuring device configured to receive, from the at least one detector, data on at least one spectral feature of at least one wavelength band (610, 612) of near infrared radiation that has been in interaction with the web, the at least one wavelength band (510, 512, 654) being an absorption band of free water and containing one or more spectral features characteristic to gypsum crystal water but deviating from those of free water; and to determine a property of the web depending on the gypsum crystal water, on the basis of the data on the at least one spectral feature characteristic to the gypsum crystal water.
A device for generating a light beam with three or more sectors for a glide angle indicator for aircraft, comprising: - illumination means equipped with at least a first, a second and a third LED source; - a projection lens aligned with the illumination means along the direction of propagation of a light beam; - an optical guide unit interposed between the illumination means and the projection lens, facing the first, second and third LED source and extending away from them along the direction of propagation, for generating an image comprising at least three different sectors (S1, S2, S3) of the light beam; characterised in that the optical guide unit comprises at least a first guide at least partly defined by a gaseous volume and a second guide defined by a solid body, both facing a respective LED source (3, 4, 5) permeable to the light and extending away from the respective LED source (3, 4, 5) along the direction of propagation wherein the device comprises a first guide interposed between two second guides or vice versa. - illumination means equipped with at least a first, a second and a third LED source; - a projection lens aligned with the illumination means along the direction of propagation of a light beam; - an optical guide unit interposed between the illumination means and the projection lens, facing the first, second and third LED source and extending away from them along the direction of propagation, for generating an image comprising at least three different sectors (S1, S2, S3) of the light beam;
A process for the emulsifier-free preparation of water expandable polymer beads, which process comprises the steps of: a) providing an emulsifier-free monomer composition comprising styrene and a polar comonomer containing a carbon-to-carbon double bond, b) prepolymerizing the monomer composition to obtain a prepolymer composition comprising styrene, the polar comonomer and their copolymer, c) adding an aqueous dispersion of a modifier-free nanoclay to the prepolymer composition to obtain an inverse emulsion, d) suspending the inverse emulsion obtained by step c) in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing the monomers in the droplets of the suspension obtained by step d). a) providing an emulsifier-free monomer composition comprising styrene and a polar comonomer containing a carbon-to-carbon double bond, b) prepolymerizing the monomer composition to obtain a prepolymer composition comprising styrene, the polar comonomer and their copolymer, c) adding an aqueous dispersion of a modifier-free nanoclay to the prepolymer composition to obtain an inverse emulsion, d) suspending the inverse emulsion obtained by step c) in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing the monomers in the droplets of the suspension obtained by step d).
A handheld device comprising: a circuit board including at least one electronic component (110a, 530); a heat pipe ((120, 500) having an evaporation section disposed on the electronic component to absorb heat generated from the electronic component and release the absorbed heat in a direction opposite to the at least one electronic component, the heat pipe comprising a condensation section configured to release the transferred heat, the heat pipe comprising a vapor cavity (410, 560) configured to cause a phase change of a medium and transfer the medium subjected to the phase change to the condensation section and a wick (420, 570) surrounding the vapor cavity to transfer the medium released from the condensation section to the evaporation section; and wherein the condensation section is disposed at a longer distance from the electronic component than the evaporation section, and the heat pipe further comprises: a connection section provided on a lateral side of the circuit board and connecting the evaporation section and the condensation section to transfer the absorbed heat in a direction opposite to the electronic component characterized in that the handheld device comprises a heat sinking material (550a, 750, 850) configured to bond the circuit board and the heat pipe to each other and in that only a heat conductive member of the heat pipe is formed on the at least one electronic component (110a; 530). a circuit board including at least one electronic component (110a, 530); a heat pipe ((120, 500) having an evaporation section disposed on the electronic component to absorb heat generated from the electronic component and release the absorbed heat in a direction opposite to the at least one electronic component, the heat pipe comprising a condensation section configured to release the transferred heat, the heat pipe comprising a vapor cavity (410, 560) configured to cause a phase change of a medium and transfer the medium subjected to the phase change to the condensation section and a wick (420, 570) surrounding the vapor cavity to transfer the medium released from the condensation section to the evaporation section; and wherein the condensation section is disposed at a longer distance from the electronic component than the evaporation section, and the heat pipe further comprises: a connection section provided on a lateral side of the circuit board and connecting the evaporation section and the condensation section to transfer the absorbed heat in a direction opposite to the electronic component characterized in that the handheld device comprises a heat sinking material (550a, 750, 850) configured to bond the circuit board and the heat pipe to each other and in that only a heat conductive member of the heat pipe is formed on the at least one electronic component (110a; 530).
A clock generation circuit, comprising: a first transistor coupled to a second transistor, wherein an input clock node of the circuit is coupled to gates of the first and second transistors (402, 404); and a frequency divider circuit having an input coupled to the input clock node, wherein an output of the frequency divider circuit is coupled to a source of the second transistor, and wherein an output node of the clock generation circuit is coupled to drains of the first and second transistors (402, 404). a first transistor coupled to a second transistor, wherein an input clock node of the circuit is coupled to gates of the first and second transistors (402, 404); and a frequency divider circuit having an input coupled to the input clock node, wherein an output of the frequency divider circuit is coupled to a source of the second transistor, and wherein an output node of the clock generation circuit is coupled to drains of the first and second transistors (402, 404).
An agricultural machine, in particular a tillage machine such as a harrow or cultivator, comprising a machine frame, a working assembly suspended from the machine frame, and a single-axle trailer chassis or lead chassis having a roller or a transport wheel, wherein the trailer chassis or lead chassis is height-adjustably coupled to the working assembly by means of a linkage forming a four-bar mechanism, characterised in that the four-bar mechanism is designed as a damping device and at least one of the links of a four-bar link pair of the linkage is designed as a length-adjustable damper strut.
A storage tray for protecting one or more optical fibers mechanically coupled to a plate-like optoelectronic device, wherein the storage tray is configured to be coupled with the optoelectronic device and comprises a fiber storage portion which is configured to receive and store the one or more optical fibers, wherein the storage tray further comprises a fiber receiving portion and a fiber redirecting portion, wherein the storage tray has a bottom side which is configured to be coupled with an upper side of the plate-like optoelectronic device, and wherein the fiber receiving portion extends further downwards with respect to the bottom side, having a coupling surface facing a lateral surface of the plate-like optoelectronic device.
An ESD protection integrated circuit on semiconductor substrate comprising: a first layer, formed on the substrate in first and third areas, of which are defined the anode regions of first and third diodes; in an upper part of said first and third areas of the first layer, regions defining the cathodes of the first and third diodes; in an upper part of second and fourth areas of the first layer, regions (44a, 44b) defining the anodes of the second and fourth diodes; a first terminal connected to the cathode of the first diode and to the anode of the second diode, the cathode of the second diode not being made of epitaxial silicon; a second terminal connected to the cathode of a third diode and to the anode of a fourth diode, and wherein: the anode of the first diode is connected to the anode of a first avalanche diode and the anode of the third diode is connected to the anode of a second avalanche diode, the cathodes (36, 34) of the second and fourth diodes and of the first and second avalanche diodes being connected to a same node and the avalanche diodes being made of regions in the substrate. a first layer, formed on the substrate in first and third areas, of which are defined the anode regions of first and third diodes; in an upper part of said first and third areas of the first layer, regions defining the cathodes of the first and third diodes; in an upper part of second and fourth areas of the first layer, regions (44a, 44b) defining the anodes of the second and fourth diodes; a first terminal connected to the cathode of the first diode and to the anode of the second diode, the cathode of the second diode not being made of epitaxial silicon; a second terminal connected to the cathode of a third diode and to the anode of a fourth diode, and wherein: the anode of the first diode is connected to the anode of a first avalanche diode and the anode of the third diode is connected to the anode of a second avalanche diode, the cathodes (36, 34) of the second and fourth diodes and of the first and second avalanche diodes being connected to a same node and the avalanche diodes being made of regions in the substrate.