mhurhangee/ep-ind-claims huggingface dataset:
A fluid de-oxygenation system comprising: a pressurized gas lumen containing pressurized de-oxygenating gas; and a liquid transport lumen (16, 16') positioned within said pressurized gas lumen and passing through said pressurize gas lumen, said liquid transport lumen (16, 16') including a plurality of openings formed along its length within said pressurized gas lumen, a shearing feature (28, 28') downstream of said plurality of openings, and a continued flow section (30, 30') downstream of said shearing feature (28, 28'); wherein the shearing feature comprises a sudden reduction in lumen cross-section; wherein said de-oxygenating gas enters said liquid transport lumen (16, 16') through said plurality of openings to form a plurality of bubbles within a transport liquid, said plurality of bubbles removing oxygen from said transport liquid; wherein said shearing feature (28, 28') collapses said plurality of bubbles into larger bubbles prior to flowing into said continued flow section (30, 30'). a pressurized gas lumen containing pressurized de-oxygenating gas; and a liquid transport lumen (16, 16') positioned within said pressurized gas lumen and passing through said pressurize gas lumen, said liquid transport lumen (16, 16') including a plurality of openings formed along its length within said pressurized gas lumen, a shearing feature (28, 28') downstream of said plurality of openings, and a continued flow section (30, 30') downstream of said shearing feature (28, 28'); wherein the shearing feature comprises a sudden reduction in lumen cross-section; wherein said de-oxygenating gas enters said liquid transport lumen (16, 16') through said plurality of openings to form a plurality of bubbles within a transport liquid, said plurality of bubbles removing oxygen from said transport liquid; wherein said shearing feature (28, 28') collapses said plurality of bubbles into larger bubbles prior to flowing into said continued flow section (30, 30').
An electronic device, comprising: a communication module; and at least one processor operably connected to the communication module, wherein the at least one processor is configured to: establish a first network connection with a first external electronic device via a first communication module of the communication module; identify a first distance between the electronic device and the first external electronic device; receive, from the first external electronic device, first state information about the first external electronic device; identify a sleep time of the first communication module based on the first state information and the first distance; and control the first communication module to remain in a sleep state during the identified sleep time. a communication module; and at least one processor operably connected to the communication module, wherein the at least one processor is configured to: establish a first network connection with a first external electronic device via a first communication module of the communication module; identify a first distance between the electronic device and the first external electronic device; receive, from the first external electronic device, first state information about the first external electronic device; identify a sleep time of the first communication module based on the first state information and the first distance; and control the first communication module to remain in a sleep state during the identified sleep time. establish a first network connection with a first external electronic device via a first communication module of the communication module; identify a first distance between the electronic device and the first external electronic device; receive, from the first external electronic device, first state information about the first external electronic device; identify a sleep time of the first communication module based on the first state information and the first distance; and control the first communication module to remain in a sleep state during the identified sleep time.
A monitoring system of a passenger conveyor, comprising: an imaging sensor configured to sense a lighting device of the passenger conveyor to acquire image data; a processing apparatus configured to process the image data to monitor whether the lighting device is in a normal state; characterised in that the processing apparatus is configured to comprise: a background acquisition module configured to acquire a background model based on image data sensed when the lighting device is in a normal state or in an abnormal state; a foreground detection module configured to compare image data sensed in real time with the background model to obtain a foreground object; and a working condition judgment module configured to perform data processing at least based on the foreground object to judge whether the lighting device is in a normal state. an imaging sensor configured to sense a lighting device of the passenger conveyor to acquire image data; a processing apparatus configured to process the image data to monitor whether the lighting device is in a normal state; characterised in that the processing apparatus is configured to comprise: a background acquisition module configured to acquire a background model based on image data sensed when the lighting device is in a normal state or in an abnormal state; a foreground detection module configured to compare image data sensed in real time with the background model to obtain a foreground object; and a working condition judgment module configured to perform data processing at least based on the foreground object to judge whether the lighting device is in a normal state. a background acquisition module configured to acquire a background model based on image data sensed when the lighting device is in a normal state or in an abnormal state; a foreground detection module configured to compare image data sensed in real time with the background model to obtain a foreground object; and a working condition judgment module configured to perform data processing at least based on the foreground object to judge whether the lighting device is in a normal state.
A method for selectively causing at least one activity to hibernate in an electronic device, comprising: in a processor, running a plurality of activities concurrently, each of the plurality of activities having a corresponding user interface; on a display screen, displaying a first set of user interfaces corresponding to a first set of the plurality of activities; in response to a trigger event, wherein the trigger event is the detection of a low-memory condition, selecting, by the processor, a first activity from the plurality of activities for hibernation; in a storage device, saving state information for the first activity; hibernating the first activity, thus freeing up a number of system resources of the electronic device currently being used by the first activity; in response to selecting the first activity for hibernation, generating a representative image of at least a portion of the user interface corresponding to the first activity indicating that the first activity is in hibernation; displaying the representative image in place of the user interface for the first activity; in response to a user selection of the representative image, retrieving state information for the first activity and reviving the first activity; in response to reviving the first activity, displaying the user interface for the first activity in place of the representative image; and wherein reviving the first activity causes a second activity to automatically hibernate. in a processor, running a plurality of activities concurrently, each of the plurality of activities having a corresponding user interface; on a display screen, displaying a first set of user interfaces corresponding to a first set of the plurality of activities; in response to a trigger event, wherein the trigger event is the detection of a low-memory condition, selecting, by the processor, a first activity from the plurality of activities for hibernation; in a storage device, saving state information for the first activity; hibernating the first activity, thus freeing up a number of system resources of the electronic device currently being used by the first activity; in response to selecting the first activity for hibernation, generating a representative image of at least a portion of the user interface corresponding to the first activity indicating that the first activity is in hibernation; displaying the representative image in place of the user interface for the first activity; in response to a user selection of the representative image, retrieving state information for the first activity and reviving the first activity; in response to reviving the first activity, displaying the user interface for the first activity in place of the representative image; and wherein reviving the first activity causes a second activity to automatically hibernate.
A friction material for a disc brake pad, which is manufactured by forming a Non-Asbestos-Organic friction material composition that does not contain a copper component but contains a binder, a fiber base, an organic friction modifier, an inorganic friction modifier, and a lubricant, wherein said friction material composition contains 5 - 9 weight % of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a silicone rubber modified phenol resin as a part of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a cashew dust as the organic friction modifier relative to the entire amount of the friction material composition, 0.5 - 3 weight % of a fused silica with an average particle diameter of 15 - 40μm as the inorganic friction modifier relative to the entire amount of the friction material composition, and 0.1 - 2 weight % of an electromelting zirconium silicate beads with an average particle diameter of 10 - 30μm as the inorganic friction modifier relative to the entire amount of the friction material composition. 5 - 9 weight % of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a silicone rubber modified phenol resin as a part of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a cashew dust as the organic friction modifier relative to the entire amount of the friction material composition, 0.5 - 3 weight % of a fused silica with an average particle diameter of 15 - 40μm as the inorganic friction modifier relative to the entire amount of the friction material composition, and 0.1 - 2 weight % of an electromelting zirconium silicate beads with an average particle diameter of 10 - 30μm as the inorganic friction modifier relative to the entire amount of the friction material composition.
A packaging unit for hygiene articles, the unit being formed from a sheet of material, said sheet having an inner surface and an outer surface, said inner surface comprising an edge zone comprising an inner edge portion and an outer edge portion, said sheet having at least one folding axis, said folding axis dividing said sheet into a first region and a second region, characterized in that one of said inner edge portion and said outer edge portion of said edge zone of said first region being provided with adhesive, and the other of said inner edge portion and said outer edge portion of said edge zone of said first region being adhesive-free; in that one of said inner edge portion and said outer edge portion of said edge zone of said second region being provided with adhesive, and the other of said inner edge portion and said outer edge portion of said edge zone of said second region being adhesive-free in a complementary manner to said edge zone of said first region, such that when said sheet is folded about said folding axis, said edge portions carrying adhesive in said first region are brought in contact with said adhesive-free edge portions in said second region, and said edge portions carrying adhesive in said second region are brought in contact with said adhesive-free edge portions in said first region, said adhesive being a pressure-sensitive hotmelt adhesive with unlimited open time and said packaging unit being reclosable.
Method for managing a thermodynamic device for a motor vehicle, comprising a heat-transfer fluid circuit, said method comprising an initial verification step in which a functional status (E1-f) or a defective status (E1-d) for the heat-transfer fluid circuit is detected as a function of a first measurement (E1-1) of the pressure of said fluid and the comparison (E1-2) thereof against a first threshold, characterized in that the method comprises, after the initial verification step during which a defective status (E1-d) has been detected, a confirmation step of confirming the defective status (E1-d), during which step a further verification is carried out by performing a second measurement (E2-1) of the pressure and comparing same against a second threshold.
A pump comprising: an inlet/outlet plate comprising an inlet hole formed through the inlet/outlet plate and an outlet hole formed through the inlet/outlet plate and spaced from the inlet hole; a valve plate adjacent the inlet/outlet plate comprising an inlet valve aligned with the inlet and an outlet valve aligned with the outlet; a channel plate arranged adjacent the valve plate, on a side of the valve plate opposite the inlet/outlet plate, the channel plate comprising a cavity in fluid communication with the inlet and the outlet; a flexible membrane proximate the cavity, at least a portion of the flexible membrane and the cavity defining an dispensing volume; and an actuator arranged to selectively apply a force to the flexible membrane, on a side of the flexible membrane opposite the dispensing volume. an inlet/outlet plate comprising an inlet hole formed through the inlet/outlet plate and an outlet hole formed through the inlet/outlet plate and spaced from the inlet hole; a valve plate adjacent the inlet/outlet plate comprising an inlet valve aligned with the inlet and an outlet valve aligned with the outlet; a channel plate arranged adjacent the valve plate, on a side of the valve plate opposite the inlet/outlet plate, the channel plate comprising a cavity in fluid communication with the inlet and the outlet; a flexible membrane proximate the cavity, at least a portion of the flexible membrane and the cavity defining an dispensing volume; and an actuator arranged to selectively apply a force to the flexible membrane, on a side of the flexible membrane opposite the dispensing volume.
An aerial refueling system for refueling a receiver aircraft in flight from a fuel supply aircraft having a door movable between an open orientation and a closed orientation, the system comprising: a) a hose reel assembly configured to be mounted onto a fuselage of the fuel supply aircraft, the hose reel assembly including a rotatable drum, the drum defined by an outside diameter; b) a hose wound around the drum of the hose reel assembly, the hose having an outlet end and a drogue affixed to the outlet end; characterized in that the aerial refueling system further comprises c) a telescoping stowage tube configured to store the outlet end of the hose and the drogue when the system is not in use and to guide the outlet end and the drogue toward the receiver aircraft when the system is in use, the telescoping stowage tube having a forward end configured to be mounted on the hose reel assembly to receive the hose from the drum and an aft end adapted to be mounted to the door, whereby, the telescoping stowage tube is configured to extend between a retracted stowed position when the door is in the closed orientation and an extended position when the door is in the open orientation. a) a hose reel assembly configured to be mounted onto a fuselage of the fuel supply aircraft, the hose reel assembly including a rotatable drum, the drum defined by an outside diameter; b) a hose wound around the drum of the hose reel assembly, the hose having an outlet end and a drogue affixed to the outlet end; characterized in that the aerial refueling system further comprises c) a telescoping stowage tube configured to store the outlet end of the hose and the drogue when the system is not in use and to guide the outlet end and the drogue toward the receiver aircraft when the system is in use, the telescoping stowage tube having a forward end configured to be mounted on the hose reel assembly to receive the hose from the drum and an aft end adapted to be mounted to the door,
A microscope slide transfer device (100; 400) for moving microscope slides from a first slide holder to a second slide holder, comprising: a housing defining a chamber; a plurality of slide carriers (120; 420) positioned in the chamber, the slide carriers (120; 420) having respective slide receiving openings; and an adjustable spacing mechanism coupled to the housing, the adjustable spacing mechanism including a manual actuator (134; 434), and a drive apparatus coupling the actuator (134; 434) to the plurality of slide carriers (120; 420), the drive apparatus is configured to move the slide carriers (120; 420) relative to one another along the chamber as the actuator (134; 434) is moved relative to the housing, wherein the drive apparatus includes a rack and pinion assembly and an expander, the rack and pinion assembly couples the actuator (134; 434) to the expander, and the expander is movable between a collapsed configuration in which the carriers (120; 420) are in a first spatial arrangement and an expanded configuration in which the carriers (120; 420) are in a second spatial arrangement, the first spatial arrangement being different from the second spatial arrangement. a housing defining a chamber; a plurality of slide carriers (120; 420) positioned in the chamber, the slide carriers (120; 420) having respective slide receiving openings; and an adjustable spacing mechanism coupled to the housing, the adjustable spacing mechanism including a manual actuator (134; 434), and a drive apparatus coupling the actuator (134; 434) to the plurality of slide carriers (120; 420), the drive apparatus is configured to move the slide carriers (120; 420) relative to one another along the chamber as the actuator (134; 434) is moved relative to the housing, wherein the drive apparatus includes a rack and pinion assembly and an expander, the rack and pinion assembly couples the actuator (134; 434) to the expander, and the expander is movable between a collapsed configuration in which the carriers (120; 420) are in a first spatial arrangement and an expanded configuration in which the carriers (120; 420) are in a second spatial arrangement, the first spatial arrangement being different from the second spatial arrangement.
A repaired flange bolt hole comprising: a flange defining a flange bolt hole having a surface, the flange comprising abase material, a coating system disposed over the surface of the flange bolt hole, wherein the coating system comprises a corrosion resistant layer, wherein the corrosion resistant layer comprises a different material than the base material, characterized in that the coating system further comprises an aluminum layer disposed beneath the corrosion resistant layer, said aluminum layer configured to be disposed along a surface of the base material as a slurry or using a sol-gel process during repair of the flange bolt hole. a flange defining a flange bolt hole having a surface, the flange comprising abase material, a coating system disposed over the surface of the flange bolt hole, wherein the coating system comprises a corrosion resistant layer, wherein the corrosion resistant layer comprises a different material than the base material, characterized in that the coating system further comprises an aluminum layer disposed beneath the corrosion resistant layer, said aluminum layer configured to be disposed along a surface of the base material as a slurry or using a sol-gel process during repair of the flange bolt hole.
A depth camera, comprising: a processor, a plurality of light emitting elements, and at least two ToF sensors; a composite irradiation range of the plurality light emitting elements covering a composite field of view of the at least two ToF sensors, wherein, the processor is configured to generate a modulation signal and a demodulation signal, and output the modulation signal to each light emitting element, output the demodulation signal to each ToF sensor, and receive depth data input by each ToF sensor, perform data fusion processing on all the received depth data to generate combined depth data, and obtain a combined depth map based on the combined depth data; each light emitting element is configured to receive a modulation signal input by the processor, modulate its own light signal with the modulation signal, and transmit a modulated light signal to an object within its own irradiation range; each ToF sensor is configured to receive a demodulation signal input by the processor, receive a modulated light signal reflected back by an object within its own field of view, demodulate the received light signal with the demodulation signal to generate depth data, and output the generated depth data to the processor, characterized in that all of the light emitting elements use the same modulation signal to modulate light signals, and all ToF sensors use the same demodulation signal corresponding to the modulation signal to demodulate modulated light signals. the processor is configured to generate a modulation signal and a demodulation signal, and output the modulation signal to each light emitting element, output the demodulation signal to each ToF sensor, and receive depth data input by each ToF sensor, perform data fusion processing on all the received depth data to generate combined depth data, and obtain a combined depth map based on the combined depth data; each light emitting element is configured to receive a modulation signal input by the processor, modulate its own light signal with the modulation signal, and transmit a modulated light signal to an object within its own irradiation range; each ToF sensor is configured to receive a demodulation signal input by the processor, receive a modulated light signal reflected back by an object within its own field of view, demodulate the received light signal with the demodulation signal to generate depth data, and output the generated depth data to the processor, characterized in that all of the light emitting elements use the same modulation signal to modulate light signals, and all ToF sensors use the same demodulation signal corresponding to the modulation signal to demodulate modulated light signals.