mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: toggling, by a computing device (120, 201) between transmission of a first signal associated with a first range at a first predetermined time interval and transmission of a second signal associated with a second range at a second predetermined time interval, wherein the first signal comprises a first beacon identifier and the second signal comprises a second beacon identifier; receiving, from a first device and based on transmission of the first signal, a first indication indicating that the first device is within the first range, wherein the first device attempts to receive communications from signals comprising the first beacon identifier; causing, by the computing device (120, 201) and based on the first indication, presentation of first content; determining, based on the toggling, that the first device has exited the first range; receiving, from the first device and based on transmission of the second signal, a second indication indicating that the first device is within the second range, wherein the first device discontinues the attempts to receive the communications from the signals comprising the first beacon identifier based on receipt of the second signal and attempts to receive communications from signals comprising the second beacon identifier; and causing, by the computing device (120, 201) and based on the determination that the first device has exited the first range, presentation of second content. toggling, by a computing device (120, 201) between transmission of a first signal associated with a first range at a first predetermined time interval and transmission of a second signal associated with a second range at a second predetermined time interval, wherein the first signal comprises a first beacon identifier and the second signal comprises a second beacon identifier; receiving, from a first device and based on transmission of the first signal, a first indication indicating that the first device is within the first range, wherein the first device attempts to receive communications from signals comprising the first beacon identifier; causing, by the computing device (120, 201) and based on the first indication, presentation of first content; determining, based on the toggling, that the first device has exited the first range; receiving, from the first device and based on transmission of the second signal, a second indication indicating that the first device is within the second range, wherein the first device discontinues the attempts to receive the communications from the signals comprising the first beacon identifier based on receipt of the second signal and attempts to receive communications from signals comprising the second beacon identifier; and causing, by the computing device (120, 201) and based on the determination that the first device has exited the first range, presentation of second content.
A method of individually distributing the costs of heating rooms in a building that comprises a number of consumer units having rooms with an associated heat source, characterized in that • the overall individual cost of the heat consumption between all consumer units is distributed into a portion of x percent that is distributed (18: 34) between consumer units in accordance with a heat energy consumption measurement in each individual consumer unit and a portion of y percent that is distributed (17;35) between consumer units in accordance with a comfort measurement; • wherein the heat energy consumption measurement of each individual room depends on the energy emitted from said heat source; • wherein the comfort measurement depends on the difference between a room temperature measurement in each individual consumer unit and an outdoor temperature measurement; and • wherein the sum of x and y is less than or equal to 100 percent. • the overall individual cost of the heat consumption between all consumer units is distributed into a portion of x percent that is distributed (18: 34) between consumer units in accordance with a heat energy consumption measurement in each individual consumer unit and a portion of y percent that is distributed (17;35) between consumer units in accordance with a comfort measurement; • wherein the heat energy consumption measurement of each individual room depends on the energy emitted from said heat source; • wherein the comfort measurement depends on the difference between a room temperature measurement in each individual consumer unit and an outdoor temperature measurement; and • wherein the sum of x and y is less than or equal to 100 percent.
An intake system for an internal combustion engine that supplies the combustion air to the internal combustion engine having a combustion chamber and an intake valve that opens and closes the combustion chamber, the intake system comprising: a cylinder block in which the combustion chamber is formed; a cylinder head in which a plurality of intake ports to introduce the combustion air into the combustion chamber are formed; a cylinder head cover disposed on an upper side of the cylinder head; a motor that is disposed on an upper side of the cylinder head cover, and exerts drive force to a cam slide mechanism that axially moves a solid cam that drives the intake valve; a cam position sensor that is disposed on the upper side of the cylinder head cover, and detects an axial position of the solid cam; and an air cleaner that takes in and cleans the combustion air from outside, characterized in that the air cleaner is disposed on an upper side of the cylinder head cover, the motor, and the cam position sensor, wherein a concave portion deeper than the other portions is formed in a bottom wall portion of the air cleaner, and wherein the concave portion is disposed between the motor and the cam position sensor. a cylinder block in which the combustion chamber is formed; a cylinder head in which a plurality of intake ports to introduce the combustion air into the combustion chamber are formed; a cylinder head cover disposed on an upper side of the cylinder head; a motor that is disposed on an upper side of the cylinder head cover, and exerts drive force to a cam slide mechanism that axially moves a solid cam that drives the intake valve; a cam position sensor that is disposed on the upper side of the cylinder head cover, and detects an axial position of the solid cam; and an air cleaner that takes in and cleans the combustion air from outside, characterized in that the air cleaner is disposed on an upper side of the cylinder head cover, the motor, and the cam position sensor, wherein
A method of obtaining image data comprising: scanning an imaging area with an imaging device while obtaining multiple overlapping images of the imaging area; and transforming the overlapping images by performing frame averaging on the overlapping images to produce at least one enhanced image of the imaging area, wherein transforming the overlapping images by performing frame averaging is performed automatically at a coarse level by determining what pixels from each overlapping image or frame overlap at a sub-pixel sampling distance, and averaging the overlapping pixels to produce the at least one enhanced image, and characterized by further comprising: transforming the overlapping images by performing super resolution frame averaging on at least one portion of the overlapping images to produce at least one super resolution image of the imaging area wherein the at least one super resolution image has a finer sampling than the at least one enhanced image. scanning an imaging area with an imaging device while obtaining multiple overlapping images of the imaging area; and transforming the overlapping images by performing frame averaging on the overlapping images to produce at least one enhanced image of the imaging area, wherein transforming the overlapping images by performing frame averaging is performed automatically at a coarse level by determining what pixels from each overlapping image or frame overlap at a sub-pixel sampling distance, and averaging the overlapping pixels to produce the at least one enhanced image, and characterized by further comprising: transforming the overlapping images by performing super resolution frame averaging on at least one portion of the overlapping images to produce at least one super resolution image of the imaging area wherein the at least one super resolution image has a finer sampling than the at least one enhanced image.
A process for introducing a catalyst powder based on a titanium compound supported on magnesium halide into a gas-phase olefin polymerization reactor, characterized in that it comprises: (a) storing the catalyst powder under a liquid alkane having a number of carbon atoms from 3 to 12; (b) withdrawing from step (a) a measured amount of said catalyst powder by means of a rotary valve; (c) transferring said metered amount of catalyst powder to a catalyst activation section by a continuous pick-up flow of a liquid C 3 -C 12 alkane; (d) contacting the catalyst powder with a liquid phase comprising an organo-aluminum compound and optionally an external donor compound; (e) introducing the activated catalyst powder in one or more gas-phase olefin polymerization reactors, where a gaseous mixture comprising at least one alpha-olefin is subjected to polymerization. (a) storing the catalyst powder under a liquid alkane having a number of carbon atoms from 3 to 12; (b) withdrawing from step (a) a measured amount of said catalyst powder by means of a rotary valve; (c) transferring said metered amount of catalyst powder to a catalyst activation section by a continuous pick-up flow of a liquid C 3 -C 12 alkane; (d) contacting the catalyst powder with a liquid phase comprising an organo-aluminum compound and optionally an external donor compound; (e) introducing the activated catalyst powder in one or more gas-phase olefin polymerization reactors, where a gaseous mixture comprising at least one alpha-olefin is subjected to polymerization.
A power control system for an electrolyzer comprising: a first stage that is configured to encode power curtailment information as a DC bus voltage level using a DC droop characteristic via a rectifier configured to output an adjustable DC voltage of the DC bus voltage level; and a second stage that is configured to decode the DC bus voltage level to power information used to set an output current of a DCDC converter to the electrolyzer. a first stage that is configured to encode power curtailment information as a DC bus voltage level using a DC droop characteristic via a rectifier configured to output an adjustable DC voltage of the DC bus voltage level; and a second stage that is configured to decode the DC bus voltage level to power information used to set an output current of a DCDC converter to the electrolyzer.
A method of forming a wear resistant coating of a valve assembly of an aircraft air management system comprising: depositing a hardface alloy powder as a powder onto a metal substrate, wherein the metal substrate is a thrust surface comprising a recessed surface of a thrust plate of the valve assembly bordered by walls, and wherein a temperature of the hardface alloy powder is below a melting temperature of the hardface alloy powder; heating the thrust surface and the hardface alloy powder in a vacuum furnace to transform most of the hardface alloy powder into a molten liquid and contract the molten liquid away from the walls, wherein heating includes raising the hardface alloy powder and substrate to a first temperature below a melting temperature of the hardface alloy powder for a first duration, then subsequently raising the temperature of the metal substrate and the hardface alloy powder to a second temperature above a melting temperature of the hardface alloy powder and lower than a melting temperature of the metal substrate to change the hardface alloy into the molten liquid; and cooling the thrust surface and the molten liquid hardface alloy into a single solid mass of hardface alloy (44;64). depositing a hardface alloy powder as a powder onto a metal substrate, wherein the metal substrate is a thrust surface comprising a recessed surface of a thrust plate of the valve assembly bordered by walls, and wherein a temperature of the hardface alloy powder is below a melting temperature of the hardface alloy powder; heating the thrust surface and the hardface alloy powder in a vacuum furnace to transform most of the hardface alloy powder into a molten liquid and contract the molten liquid away from the walls, wherein heating includes raising the hardface alloy powder and substrate to a first temperature below a melting temperature of the hardface alloy powder for a first duration, then subsequently raising the temperature of the metal substrate and the hardface alloy powder to a second temperature above a melting temperature of the hardface alloy powder and lower than a melting temperature of the metal substrate to change the hardface alloy into the molten liquid; and cooling the thrust surface and the molten liquid hardface alloy into a single solid mass of hardface alloy (44;64).
A development cartridge for an image forming apparatus, the development cartridge comprising: a photosensitive unit comprising a photosensitive drum; a developing unit comprising a developing roller configured to contact the photosensitive drum so as to form a development nip, the developing unit coupled to the photosensitive unit to be rotatable; a driving gear configured to drive at least one of the developing roller and the photosensitive drum, and configured to rotate in a first direction during a printing operation or a second direction opposite the first direction during a non-printing operation; a driving member positioned coaxially with the driving gear and configured to be rotated by the driving gear; a first one-way clutch (211, 512) configured to connect the driving member with the driving gear when the driving gear rotates in the second direction; and a first moving member configured to be connected to the driving member so as to move between a first location to rotate the developing unit to form the development nip and a second location to rotate the developing unit to release the development nip. a photosensitive unit comprising a photosensitive drum; a developing unit comprising a developing roller configured to contact the photosensitive drum so as to form a development nip, the developing unit coupled to the photosensitive unit to be rotatable; a driving gear configured to drive at least one of the developing roller and the photosensitive drum, and configured to rotate in a first direction during a printing operation or a second direction opposite the first direction during a non-printing operation; a driving member positioned coaxially with the driving gear and configured to be rotated by the driving gear; a first one-way clutch (211, 512) configured to connect the driving member with the driving gear when the driving gear rotates in the second direction; and a first moving member configured to be connected to the driving member so as to move between a first location to rotate the developing unit to form the development nip and a second location to rotate the developing unit to release the development nip.
Apparatus for triggering an emergency call in a motor vehicle wherein the apparatus comprises at least one module for setting up communication with a device external to the vehicle, wherein at least one evaluation device is assigned to the module, wherein the module is designed in such a way that it automatically transmits an emergency call when at least one predefined state or event is detected, wherein a manual emergency call button is assigned to the module, said emergency call button being connected to the module via at least one connecting line, characterized in that the module comprises means for checking the at least one connecting line and is designed in such a way that it automatically transmits an emergency call in the case of a detected defect of the at least one connecting line, wherein the emergency call button is arranged in a roof module of the motor vehicle and the at least one connecting line is laid through or on an A-pillar of the motor vehicle.
High-pressure pump arrangement for pumping fuel from a tank into a high-pressure container, comprising at least one pump element which consists of pump cylinder and pump piston, and a fuel feed for the pump element, it being possible for the pump space of the pump element to be connected via an upstroke valve to a pump suction space which is fed by the fuel feed and via a delivery valve to the high-pressure container, the pump element having a leakage line for returning leakage fuel which flows out between pump piston and pump cylinder to the pump suction space, and the fuel feed having a metering unit, and at least one flushing line (24, 24') which has a throttle (25, 25') leading away from the fuel feed downstream of the metering unit for discharging a flushing quantity which comes from the metering unit into a low-pressure region, characterized in that the at least one flushing line (24, 24') is connected to the pump suction space, with the result that the pump suction space is flowed through by the flushing quantity.
An adjustable yarn brake (10, 60) comprising: - means configured to have a reference position set when the yarn brake just starts to act on a yarn, - means (6, 56) configured to set the reference position in a memory,and - a position sensor configured to output an output signal indicative of the position of a movable member (68, 78, 81) of the adjustable yarn brake in relation to the reference position, wherein the brake force of the adjustable yarn brake is determined by the position of the movable member (68, 78, 81), wherein the adjustable yarn brake (10, 60) is configured to output the signal from the position sensor to a display or to store the output signal from the position sensor in a memory to be re-used at another time or at another set-up to re-create the same settings. - means configured to have a reference position set when the yarn brake just starts to act on a yarn, - means (6, 56) configured to set the reference position in a memory,and - a position sensor configured to output an output signal indicative of the position of a movable member (68, 78, 81) of the adjustable yarn brake in relation to the reference position, wherein the brake force of the adjustable yarn brake is determined by the position of the movable member (68, 78, 81), wherein the adjustable yarn brake (10, 60) is configured to output the signal from the position sensor to a display or to store the output signal from the position sensor in a memory to be re-used at another time or at another set-up to re-create the same settings.
Method for selecting and entering measures for resuming a program sequence of a domestic washing machine after reaching a stop after executing a rinse phase of the program sequence in the case of an operating facility, by which at least partially prepared program compilations for the program-controlled and machine-based execution of laundry treatments, as a result of basic programs, which are stored in a memory device and can be selected from a category in a level, and program data, which can be displayed on at least one display and can be entered using at least one actuator (8, 12, 13, 23 to 26) to select the basic programs and program data as well as options of basic program variants, which can selected from a category in a lower level, namely at least one "rinse stop" option are able to be entered and are also able to be activated using an actuator to start the program sequence as a whole, characterised in that, after reaching a stop after executing the rinse phase of the program sequence, a display indicates that the rinse stop has been reached and a further selection of options can be made, and the options are indicated as self-explanatory soft keys (24, 25) on the display and can be triggered by touching the soft keys (24, 25).
A method of purifying water containing colloidal particulate matter comprising: a) pretreating the water by passing the water through a vessel containing a resin component, wherein the resin component comprises a highly macroporous anion exchange resin having a substantial number of pores having a pore diameter in the range of 4,000 to 500,000 Angstroms and a crush strength or Chatillon value of at least 24 g/bead (710μm bead diameter); b) feeding the water exiting the resin component to a reverse osmosis membrane or a nanofiltration membrane to produce permeate water; and c) periodically regenerating the resin component by removing contaminants from the resin by passing a solution of sodium chloride through the vessel, wherein the water entering the vessel is pressurized to pressure values of 5 to 200 pounds per square inch (0,345 to 13,789 bar), the resin component reduces the colloidal particulate matter and the Silt Density Index content of the water by at least 20 percent of the influent values, and the flow of water from the resin component to the reverse osmosis or nanofiltration membrane is continuous. a) pretreating the water by passing the water through a vessel containing a resin component, wherein the resin component comprises a highly macroporous anion exchange resin having a substantial number of pores having a pore diameter in the range of 4,000 to 500,000 Angstroms and a crush strength or Chatillon value of at least 24 g/bead (710μm bead diameter); b) feeding the water exiting the resin component to a reverse osmosis membrane or a nanofiltration membrane to produce permeate water; and c) periodically regenerating the resin component by removing contaminants from the resin by passing a solution of sodium chloride through the vessel, wherein the water entering the vessel is pressurized to pressure values of 5 to 200 pounds per square inch (0,345 to 13,789 bar), the resin component reduces the colloidal particulate matter and the Silt Density Index content of the water by at least 20 percent of the influent values, and the flow of water from the resin component to the reverse osmosis or nanofiltration membrane is continuous.