mhurhangee/ep-ind-claims huggingface dataset:
A process for forming a polymeric coating on a liner, the process comprising: a) providing a liner, b) applying to at least a portion of the liner a liquid comprising water and a precursor of a polymeric material, c) contacting the liquid on the liner with a water-sorbing material that is in the form of particles and comprises a water absorbing material selected from a cellulose derivative or a smectite clay, d) curing the polymeric coating, and e) leaching the cured polymeric coating with water, so that the particles of the water-sorbing material are removed from the polymeric coating. a) providing a liner, b) applying to at least a portion of the liner a liquid comprising water and a precursor of a polymeric material, c) contacting the liquid on the liner with a water-sorbing material that is in the form of particles and comprises a water absorbing material selected from a cellulose derivative or a smectite clay, d) curing the polymeric coating, and e) leaching the cured polymeric coating with water, so that the particles of the water-sorbing material are removed from the polymeric coating.
Method for real-time-capable data communication between subscribers in an automation network, wherein the automation network comprises a master subscriber, multiple slave subscribers and at least one connection unit, these being connected to one another via a network of data cables, wherein the network of data cables is in the form of a field bus system, wherein the master subscriber is designed to transmit data packets to the slave subscribers for the data communication in a cycle in which the data packets are transmitted from the master subscriber to the slave subscribers and data packets are transmitted from the slave subscribers to the master subscriber, and wherein the connection unit is designed to forward data packets addressed to the slave subscribers and to route the data packets back to the master subscriber, wherein the method comprises the following method steps: the master subscriber arranging n data packets to be transmitted in a transmission order with a total occupancy duration of the transmission order in a first arrangement step, wherein the total occupancy duration comprises a period from the master subscriber transmitting a first bit of a data packet that is transmitted first until the master subscriber receiving a last bit of a data packet that is received last, the master subscriber performing an optimization method in order to determine an optimized transmission order with a minimum total occupancy duration in an optimization step, wherein the optimization method comprises a finite number of at most n*(n-1)/2 pairwise swaps of orders of n data packets that follow one another in the transmission order and determinations of the total occupancy durations of the transmission orders generated by the swaps, and the master subscriber transmitting the n data packets in the optimized transmission order to the slave subscribers in a transmission step. the master subscriber arranging n data packets to be transmitted in a transmission order with a total occupancy duration of the transmission order in a first arrangement step, wherein the total occupancy duration comprises a period from the master subscriber transmitting a first bit of a data packet that is transmitted first until the master subscriber receiving a last bit of a data packet that is received last, the master subscriber performing an optimization method in order to determine an optimized transmission order with a minimum total occupancy duration in an optimization step, wherein the optimization method comprises a finite number of at most n*(n-1)/2 pairwise swaps of orders of n data packets that follow one another in the transmission order and determinations of the total occupancy durations of the transmission orders generated by the swaps, and the master subscriber transmitting the n data packets in the optimized transmission order to the slave subscribers in a transmission step.
A cabin for a construction equipment, characterized in that the cabin comprises a leakage prevention apparatus, the leakage prevention apparatus comprising: a first plate coupled to a frame of the cabin; a second plate extending from the first plate such as to face a lower windshield of the cabin; and a damper pressing the lower windshield, the damper displaceably coupled to the second plate to adjust an amount of force pressing the lower windshield. a first plate coupled to a frame of the cabin; a second plate extending from the first plate such as to face a lower windshield of the cabin; and a damper pressing the lower windshield, the damper displaceably coupled to the second plate to adjust an amount of force pressing the lower windshield.
A device for infant calming comprising: a base; a movable platform for supporting an infant in an essentially supine position, wherein the movable platform is mounted above the base and comprises a single, integral platform that supports the head and the body of the infant; at least one sensor detecting a parameter of the infant and generating a data signal corresponding to the detected parameter; a control system for receiving data signals, processing the data signals, and selecting of a plurality of operational modes based on the data signals; a user interface for inputting data comprising at least one of a control command and data of an additional parameter regarding the infant to the control system, wherein the control system receives the data signal corresponding to the detected parameter and the inputted data from the user interface and selects one of the plurality of operational modes based on the data signal corresponding to the detected parameter and the inputted data provided, wherein each operational mode of the plurality of operational modes comprises at least one of a desired motion amplitude and frequency range and a desired sound pitch and volume range, and wherein the control system provides output signals based on the selected one of the plurality of operational modes; and a motor in communication with the output signals of the control system and receiving the output signals, the motor causing movement of the platform based on the selected operational mode. a base; a movable platform for supporting an infant in an essentially supine position, wherein the movable platform is mounted above the base and comprises a single, integral platform that supports the head and the body of the infant; at least one sensor detecting a parameter of the infant and generating a data signal corresponding to the detected parameter; a control system for receiving data signals, processing the data signals, and selecting of a plurality of operational modes based on the data signals; a user interface for inputting data comprising at least one of a control command and data of an additional parameter regarding the infant to the control system, wherein the control system receives the data signal corresponding to the detected parameter and the inputted data from the user interface and selects one of the plurality of operational modes based on the data signal corresponding to the detected parameter and the inputted data provided, wherein each operational mode of the plurality of operational modes comprises at least one of a desired motion amplitude and frequency range and a desired sound pitch and volume range, and wherein the control system provides output signals based on the selected one of the plurality of operational modes; and a motor in communication with the output signals of the control system and receiving the output signals, the motor causing movement of the platform based on the selected operational mode.
A method for invoking a fingerprint identification device, comprising: determining whether a fingerprint identification device is occupied by a previously executed application, when a request of a current application to invoke the fingerprint identification device is detected, characterised by further comprising: when the fingerprint identification device is occupied by the previously executed application, determining whether the current application has stayed at the foreground for a preset time period; and controlling the fingerprint identification device to process the request of the current application according to a result of determining whether the current application has stayed at the foreground for the preset time period. determining whether a fingerprint identification device is occupied by a previously executed application, when a request of a current application to invoke the fingerprint identification device is detected, characterised by further comprising: when the fingerprint identification device is occupied by the previously executed application, determining whether the current application has stayed at the foreground for a preset time period; and controlling the fingerprint identification device to process the request of the current application according to a result of determining whether the current application has stayed at the foreground for the preset time period. when the fingerprint identification device is occupied by the previously executed application, determining whether the current application has stayed at the foreground for a preset time period; and controlling the fingerprint identification device to process the request of the current application according to a result of determining whether the current application has stayed at the foreground for the preset time period.
Lubricating grease composition comprising: (i) a base oil; (ii) 2% to 30% by weight of the composition of a thickener system consisting of (a) a lithium soap of a C 12 to C 24 hydroxycarboxylic acid and (b) an alkaline earth metal salt of a C 2 to C 12 dicarboxylic acid; wherein the weight ratio between the C 12 to C 24 hydroxycarboxylic acid and the C 2 to C 12 dicarboxylic acid is from 20:1 to 1:1. (i) a base oil; (ii) 2% to 30% by weight of the composition of a thickener system consisting of (a) a lithium soap of a C 12 to C 24 hydroxycarboxylic acid and (b) an alkaline earth metal salt of a C 2 to C 12 dicarboxylic acid; wherein the weight ratio between the C 12 to C 24 hydroxycarboxylic acid and the C 2 to C 12 dicarboxylic acid is from 20:1 to 1:1.
An interference coordination method, comprising: receiving, by a base station, an interference indicator that is in at least one subframe and sent by a user equipment, wherein the interference indicator comprises received signal strength indicators,RSSIs, that are received by the user equipment in the at least one subframe and of all physical resource blocks,PRBs, or sorted index values of the RSSIs of all the PRBs; determining, by the base station, a first list of candidate user equipment identities with a highest priority according to the interference indicator and uplink resource allocation information in the at least one subframe of a serving cell, wherein the serving cell is a cell managed by the base station and serving the user equipment, and the first list of candidate user equipment identities comprises a candidate user equipment identity of the serving cell and interference information of a communication link of a macro cell corresponding to the candidate user equipment identity of the serving cell; and determining, by the base station, that a communication link of a macro cell corresponding to an identity, in the first list of candidate user equipment identities, of a user equipment with smallest interference is a reusable resource for device-to-device,D2D, communication. receiving, by a base station, an interference indicator that is in at least one subframe and sent by a user equipment, wherein the interference indicator comprises received signal strength indicators,RSSIs, that are received by the user equipment in the at least one subframe and of all physical resource blocks,PRBs, or sorted index values of the RSSIs of all the PRBs; determining, by the base station, a first list of candidate user equipment identities with a highest priority according to the interference indicator and uplink resource allocation information in the at least one subframe of a serving cell, wherein the serving cell is a cell managed by the base station and serving the user equipment, and the first list of candidate user equipment identities comprises a candidate user equipment identity of the serving cell and interference information of a communication link of a macro cell corresponding to the candidate user equipment identity of the serving cell; and determining, by the base station, that a communication link of a macro cell corresponding to an identity, in the first list of candidate user equipment identities, of a user equipment with smallest interference is a reusable resource for device-to-device,D2D, communication.
A method for controlling fuel injection in a multifuel internal-combustion engine that can inject alternatively a liquid fuel and a gaseous fuel; the control method comprises the steps of: injecting the gaseous fuel by means of a plurality of injectors, which are directly connected to a common channel; and cyclically measuring the pressure (P rail) of the gaseous fuel within the common channel; the control method is characterized in that it comprises the further steps of: determining an upper-limit threshold (P rail-max) for the pressure (P rail) of the gaseous fuel within the common channel; comparing the pressure (P rail) of the gaseous fuel within the common channel with the upper-limit threshold (P rail-max); and carrying out an automatic fuel switch from the gaseous fuel to the liquid fuel when the pressure (P rail) of the gaseous fuel within the common channel is higher than the upper-limit threshold (P rail-max). injecting the gaseous fuel by means of a plurality of injectors, which are directly connected to a common channel; and cyclically measuring the pressure (P rail) of the gaseous fuel within the common channel; the control method is characterized in that it comprises the further steps of: determining an upper-limit threshold (P rail-max) for the pressure (P rail) of the gaseous fuel within the common channel; comparing the pressure (P rail) of the gaseous fuel within the common channel with the upper-limit threshold (P rail-max); and carrying out an automatic fuel switch from the gaseous fuel to the liquid fuel when the pressure (P rail) of the gaseous fuel within the common channel is higher than the upper-limit threshold (P rail-max). determining an upper-limit threshold (P rail-max) for the pressure (P rail) of the gaseous fuel within the common channel; comparing the pressure (P rail) of the gaseous fuel within the common channel with the upper-limit threshold (P rail-max); and carrying out an automatic fuel switch from the gaseous fuel to the liquid fuel when the pressure (P rail) of the gaseous fuel within the common channel is higher than the upper-limit threshold (P rail-max).
Method for determining the mileage or the wear of a moving component or a component assembly, wherein the moving component or the component assembly is a component or a component assembly of an internal combustion engine, characterised in that the noise that is output by the moving component or the component group in the ultrasonic range of 30 to 50 kHz is measured by means of an ultrasonic probe, that the measured noise is compared to noise values that are determined in advance and are dependent upon the mileage or the wear and specific for the respective component or the component assembly, wherein the measured noise value is allocated to the closest noise value that is determined in advance and that the mileage or the wear index of the moving component or the component assembly is determined with reference to this comparison.
A system for monitoring a molding machine, comprising: - detecting means for detecting data, which varies over time, on power-transmitting media of actuating means for actuating an element of the molding machine; - a first memory means for memorizing previously determined data on the power-transmitting media of actuating means for actuating one element of a properly operating molding machine, or specified design data on an element of a properly operating molding machine as target data before a sandmold is produced by the molding machine; - a second memory means for memorizing data on the power-transmitting media of actuating means for actuating an element of the molding machine, which varies over time, and which is obtained when a sandmold is actually produced by the molding machine as detected data; - displaying means for displaying the data of the first and second memory means. - detecting means for detecting data, which varies over time, on power-transmitting media of actuating means for actuating an element of the molding machine; - a first memory means for memorizing previously determined data on the power-transmitting media of actuating means for actuating one element of a properly operating molding machine, or specified design data on an element of a properly operating molding machine as target data before a sandmold is produced by the molding machine; - a second memory means for memorizing data on the power-transmitting media of actuating means for actuating an element of the molding machine, which varies over time, and which is obtained when a sandmold is actually produced by the molding machine as detected data; - displaying means for displaying the data of the first and second memory means.
A hair care coater comprising a paint liquid in a container, wherein said coater, while combing hair by a comber made up of a porous coating body and comb members arranged parallel to the longer sides of the porous coating body, is able to apply said paint liquid in said container being attached to the hair by means of the porous coating body, a distal end of the porous body being exposed, characterized in that said comber is made up of a plate shaped porous coating body and the paint liquid retention force of the porous coating body falls within a range of 120 to 250 mm, said liquid retention force mm of a porous coating body being defined as the distance between the lower end of the body and the liquid surface which is the liquid column height of the liquid supported by the body in the following situation: one end of a silicone tube is put in a storage container with a liquid while the other end is coupled to the porous coating body and the tube and the interior of the body is filled up to its top end with the liquid, then the lower end of the body is lifted gradually, and a meniscus is formed at the top end of the body so as to retain a liquid column of the liquid by the capillary force of the body and the height when air enters from the bottom of the body is determined to thereby measure the retention force, and the distal ends of comb teeth of the comb members stick further out by a distance ranging from 0.2 to 3.0 mm from the distal end of the porous coating body. one end of a silicone tube is put in a storage container with a liquid while the other end is coupled to the porous coating body and the tube and the interior of the body is filled up to its top end with the liquid, then the lower end of the body is lifted gradually, and a meniscus is formed at the top end of the body so as to retain a liquid column of the liquid by the capillary force of the body and the height when air enters from the bottom of the body is determined to thereby measure the retention force, and
A glove for cleaning one or more objects, the glove comprising: a plurality of sensors (102A-N) positioned on at least one layer of the glove; a first finger fitted with a nozzle at a fingertip thereof, wherein the nozzle is configured to discharge water being facilitated via an inlet pipe connected to the nozzle, and wherein the flow of water is activated and controlled using a first sensor from the plurality of sensors (102A-N); an outlet to dispense cleansing fluid comprised in a fluid chamber, the fluid chamber being mounted on the glove, wherein the cleansing fluid is released from the fluid chamber and controlled using a second sensor from the plurality of sensors (102A-N); and at least one second finger configured to be inserted into a first detachable power-driven scrubber, wherein the first detachable power-driven scrubber is configured to controllably rotate in one or more directions based on an activation of a third sensor from the plurality of sensors (102A-N) to clean an object, and wherein the first detachable power-driven scrubber is configured to clean the object based on at least one of (i) discharge of controlled flow of water being facilitated by the nozzle using the first sensor from the plurality of sensors (102A-N), and (ii) dispensing of controlled flow of the cleansing fluid from the outlet, using the second sensor from the plurality of sensors (102A-N). a plurality of sensors (102A-N) positioned on at least one layer of the glove; a first finger fitted with a nozzle at a fingertip thereof, wherein the nozzle is configured to discharge water being facilitated via an inlet pipe connected to the nozzle, and wherein the flow of water is activated and controlled using a first sensor from the plurality of sensors (102A-N); an outlet to dispense cleansing fluid comprised in a fluid chamber, the fluid chamber being mounted on the glove, wherein the cleansing fluid is released from the fluid chamber and controlled using a second sensor from the plurality of sensors (102A-N); and at least one second finger configured to be inserted into a first detachable power-driven scrubber, wherein the first detachable power-driven scrubber is configured to controllably rotate in one or more directions based on an activation of a third sensor from the plurality of sensors (102A-N) to clean an object, and wherein the first detachable power-driven scrubber is configured to clean the object based on at least one of (i) discharge of controlled flow of water being facilitated by the nozzle using the first sensor from the plurality of sensors (102A-N), and (ii) dispensing of controlled flow of the cleansing fluid from the outlet, using the second sensor from the plurality of sensors (102A-N).
A process for electrolyzing an alkali chloride comprising: (a) providing an ion-exchange-membrane-method alkali chloride electrolytic cell equipped with an anode chamber having an anode, an ion exchange membrane, and a cathode chamber having a gas diffusion cathode; (b) introducing saline water into the anode chamber while introducing water and an oxygen-containing gas formed from air in a pressure swing adsorption apparatus into the cathode chamber, to thereby obtain chlorine in the anode chamber and an aqueous caustic alkali solution in the cathode chamber; (c) separating the oxygen-containing gas and the aqueous caustic alkali solution discharged from the cathode chamber using a gas-liquid separator; and (d) feeding a portion of the oxygen-containing gas discharged from the gas-liquid separator back to the cathode chamber, to thereby carry out circulating feed; the process further comprising controlling the temperature of the electrolytic cell by cooling or heating the oxygen-containing gas to be introduced into the cathode chamber. (a) providing an ion-exchange-membrane-method alkali chloride electrolytic cell equipped with an anode chamber having an anode, an ion exchange membrane, and a cathode chamber having a gas diffusion cathode; (b) introducing saline water into the anode chamber while introducing water and an oxygen-containing gas formed from air in a pressure swing adsorption apparatus into the cathode chamber, to thereby obtain chlorine in the anode chamber and an aqueous caustic alkali solution in the cathode chamber; (c) separating the oxygen-containing gas and the aqueous caustic alkali solution discharged from the cathode chamber using a gas-liquid separator; and (d) feeding a portion of the oxygen-containing gas discharged from the gas-liquid separator back to the cathode chamber, to thereby carry out circulating feed;