mhurhangee/patent-ind-claim-en huggingface dataset:
A machine for managing laundry, comprising: a first washing part comprising a first washing body and a first door , the first washing part having a first washing capacity; a second washing part comprising a second washing body and a second door, the second washing part having a second washing capacity that is less than the first washing capacity; and a third washing part comprising a third washing body and a third door , the third washing part having a third washing capacity that is less than the first washing capacity, wherein the first washing part , the second washing part , and the third washing part are configured to be stacked in a vertical direction, characterized in that the third washing part comprises a tub rotatably disposed in the third washing body and a shoe mount provided to a lower portion of the tub and configured to support one or more shoes, wherein the shoe mount comprises a rotation plate coupled to a bottom surface of the tub and a mounting protrusion that protrudes upward from the rotation plate and that is configured to support the one or more shoes, wherein the mounting protrusion comprises: an insertion protrusion configured to be inserted into the one or more shoes; and a support protrusion spaced apart from the insertion protrusion and configured to support a lateral surface of the one or more shoes. a first washing part comprising a first washing body and a first door , the first washing part having a first washing capacity; a second washing part comprising a second washing body and a second door, the second washing part having a second washing capacity that is less than the first washing capacity; and a third washing part comprising a third washing body and a third door , the third washing part having a third washing capacity that is less than the first washing capacity, wherein the first washing part , the second washing part , and the third washing part are configured to be stacked in a vertical direction, an insertion protrusion configured to be inserted into the one or more shoes; and a support protrusion spaced apart from the insertion protrusion and configured to support a lateral surface of the one or more shoes.
A multilayer body comprising a sealing layer (A) comprising a thermoplastic resin, an oxygen absorption layer (B) comprising a thermoplastic resin and iron powder, an odor absorption layer (C) comprising a thermoplastic resin and an inorganic base, and an oxygen barrier layer (D) having oxygen barrier properties, the layers being laminated in a described order.
Method for reducing arcs during electrical treatments of plants, in particular during desiccation of field crops, for controlling green manure or for controlling weeds, the method comprising the steps of: (S300) targeted application of a composition to plants, wherein the composition has at least one component which reduces an electrical contact resistance in the region of the surface of the plants, wherein the applied composition reduces the electrical contact resistance by at least 5%, (S400) applying electrical current to the plants, wherein the method is characterized by the steps of (S500) detecting an arc formed between two applicators , (S600) detecting and evaluating the number of detected arcs within a predetermined time period and/or during the electrical treatment of a predetermined area (A), and (S700) adapting the composition if the detected number of arcs exceeds a specified frequency. (S300) targeted application of a composition to plants, wherein the composition has at least one component which reduces an electrical contact resistance in the region of the surface of the plants, wherein the applied composition reduces the electrical contact resistance by at least 5%, (S400) applying electrical current to the plants, wherein the method is characterized by the steps of (S500) detecting an arc formed between two applicators , (S600) detecting and evaluating the number of detected arcs within a predetermined time period and/or during the electrical treatment of a predetermined area (A), and (S700) adapting the composition if the detected number of arcs exceeds a specified frequency.
A pharmaceutical composition for use in a therapeutic method of reducing excessive body weight in a mammal subject suffering from excessive weight or overt obesity, comprising an effective amount of one or more rhamnolipids.
A method for producing H-shaped steel using a slab as a material, the method comprising: a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein in a rolling mill that performs the rough rolling step, a plurality of calibers to shape a material to be rolled (A), and a web thinning caliber (K7) to thin a web of the material to be rolled (A) that has been shaped in the plurality of calibers are engraved, the number of the plurality of calibers being three or more, shaping of a plurality of passes is performed on the material to be rolled (A) in part or all of the plurality of calibers, in a first caliber (K1) and a second caliber (K2) among the plurality of calibers, projections to create splits vertically with respect to a width direction of the material to be rolled (A) are formed, in a third caliber (K3) and subsequent calibers among the plurality of calibers, a step of sequentially bending divided parts formed by the splits is performed, and the projections formed in the first caliber (K1) and the second caliber (K2) have a tip angle of 40° or less. a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein in a rolling mill that performs the rough rolling step, a plurality of calibers to shape a material to be rolled (A), and a web thinning caliber (K7) to thin a web of the material to be rolled (A) that has been shaped in the plurality of calibers are engraved, the number of the plurality of calibers being three or more, shaping of a plurality of passes is performed on the material to be rolled (A) in part or all of the plurality of calibers, in a first caliber (K1) and a second caliber (K2) among the plurality of calibers, projections to create splits vertically with respect to a width direction of the material to be rolled (A) are formed, in a third caliber (K3) and subsequent calibers among the plurality of calibers, a step of sequentially bending divided parts formed by the splits is performed, and the projections formed in the first caliber (K1) and the second caliber (K2) have a tip angle of 40° or less.
A flow cytometer of a blood analyzer, comprising: a transverse-electric (TE) laser diode configured to output a laser beam along an optical axis, the laser beam having a fast axis full width at half maximum (FWHM) divergence of from about 16 degrees to about 25 degrees; a flow cell; a quarter wave plate (QWP) disposed along the optical axis between the TE laser diode and the flow cell, the QWP configured to circularly polarize the laser beam as it passes therethrough; a plurality of lenses disposed between the TE laser diode and the flow cell, the plurality of lenses cooperating to focus the laser beam at the flow cell; and a side scatter detector configured to detect side-scattered light from the flow cell at angles of about 50 degrees to about 120 degrees relative to the optical axis. a transverse-electric (TE) laser diode configured to output a laser beam along an optical axis, the laser beam having a fast axis full width at half maximum (FWHM) divergence of from about 16 degrees to about 25 degrees; a flow cell; a quarter wave plate (QWP) disposed along the optical axis between the TE laser diode and the flow cell, the QWP configured to circularly polarize the laser beam as it passes therethrough; a plurality of lenses disposed between the TE laser diode and the flow cell, the plurality of lenses cooperating to focus the laser beam at the flow cell; and a side scatter detector configured to detect side-scattered light from the flow cell at angles of about 50 degrees to about 120 degrees relative to the optical axis.
A remote notification electronic rodent trapping system comprising: a base station or gateway device ; and a plurality of electronic rodent trapping devices , each of said rodent trapping devices including an RF module for sending wireless transmissions to the base station or gateway device , and sending the wireless transmission at a frequency of less than 1 GHz over a low power wide area network (LPWAN) , each wireless transmission having a payload of not more than 256 bytes, said frequency and payload size providing long range wireless remote notification capability while communicating directly with the base station or gateway device without using repeaters and wherein the rodent trapping device has an electric or electronic-mechanical trap configured to dispatch rodents, wherein the plurality of trapping devices are spaced at different geographical locations from each other and can communicate directly with the base station or gateway at distances of up to at least one mile. a base station or gateway device ; and a plurality of electronic rodent trapping devices , each of said rodent trapping devices including an RF module for sending wireless transmissions to the base station or gateway device , and sending the wireless transmission at a frequency of less than 1 GHz over a low power wide area network (LPWAN) , each wireless transmission having a payload of not more than 256 bytes, said frequency and payload size providing long range wireless remote notification capability while communicating directly with the base station or gateway device without using repeaters and wherein the rodent trapping device has an electric or electronic-mechanical trap configured to dispatch rodents, wherein the plurality of trapping devices are spaced at different geographical locations from each other and can communicate directly with the base station or gateway at distances of up to at least one mile.
A method, performed by a wireless device, for resource reservation of a contention-based sidelink transmission according to a Discontinuous Reception, DRX, cycle, the method comprising: - obtaining (S101) information defining a transmission resource pool aligned with DRX active time of a receiving wireless device and a resource reservation pool arranged prior to the DRX active time comprising one or more resource reservation blocks associated with respective transmission resources in the transmission resource pool, wherein the one or more resource reservation blocks comprise a plurality of occasions; - transmitting (S104) a resource reservation signal using a first occasion of a resource reservation block associated with a transmission resource selected by the wireless device for sidelink transmission; - monitoring (S106) one or more other occasions of the resource reservation block for resource reservation signals transmitted by other wireless devices aiming at reserving the same transmission resource, wherein the one or more other occasions are different from the first occasion; and - controlling (S108), based on the monitoring, the sidelink transmission using the transmission resource; wherein the transmitting (S104) is performed prior to the sidelink transmission. - obtaining (S101) information defining a transmission resource pool aligned with DRX active time of a receiving wireless device and a resource reservation pool arranged prior to the DRX active time comprising one or more resource reservation blocks associated with respective transmission resources in the transmission resource pool, wherein the one or more resource reservation blocks comprise a plurality of occasions; - transmitting (S104) a resource reservation signal using a first occasion of a resource reservation block associated with a transmission resource selected by the wireless device for sidelink transmission; - monitoring (S106) one or more other occasions of the resource reservation block for resource reservation signals transmitted by other wireless devices aiming at reserving the same transmission resource, wherein the one or more other occasions are different from the first occasion; and - controlling (S108), based on the monitoring, the sidelink transmission using the transmission resource;
A polyamide resin composition comprising a polyamide resin and an inorganic filler, wherein the polyamide resin comprises diamine-derived constituent units and dicarboxylic acid-derived constituent units; 70 mol% or more of the diamine-derived constituent units are derived from 1,4-bis(aminomethyl)cyclohexane; a molar ratio of cis:trans of the 1,4-bis(aminomethyl)cyclohexane is from 35:65 to 0:100; 70 mol% or more of the dicarboxylic acid-derived constituent units are derived from an α,ω-linear aliphatic dicarboxylic acid having from 8 to 12 carbons; the polyamide resin comprises phosphorus atoms in a ratio of from 20 to 100 mass ppm and comprises calcium atoms so as to be phosphorus atoms:calcium atoms of 1:0.3 to 0.7 in a molar ratio; and the polyamide resin composition comprises the inorganic filler in an amount of 20 to 72 % by mass. the polyamide resin comprises diamine-derived constituent units and dicarboxylic acid-derived constituent units; 70 mol% or more of the diamine-derived constituent units are derived from 1,4-bis(aminomethyl)cyclohexane; a molar ratio of cis:trans of the 1,4-bis(aminomethyl)cyclohexane is from 35:65 to 0:100; 70 mol% or more of the dicarboxylic acid-derived constituent units are derived from an α,ω-linear aliphatic dicarboxylic acid having from 8 to 12 carbons; the polyamide resin comprises phosphorus atoms in a ratio of from 20 to 100 mass ppm and comprises calcium atoms so as to be phosphorus atoms:calcium atoms of 1:0.3 to 0.7 in a molar ratio; and the polyamide resin composition comprises the inorganic filler in an amount of 20 to 72 % by mass.
A first wireless communication device (102; 104; 200; 302; 304), comprising: an interface configured to: receive a first wireless transmission, the first wireless transmission including a transmit, TX, parameter information element, IE; and receive a second wireless transmission; and a processing system configured to: obtain one or more transmission parameters for one or more second wireless communication devices associated with the TX parameter IE, wherein the second wireless transmission is from one of the one or more second wireless communication devices; and obtain one or more wireless sensing measurements associated with the second wireless transmission and the one or more transmission parameters. an interface configured to: receive a first wireless transmission, the first wireless transmission including a transmit, TX, parameter information element, IE; and receive a second wireless transmission; and receive a first wireless transmission, the first wireless transmission including a transmit, TX, parameter information element, IE; and receive a second wireless transmission; and a processing system configured to: obtain one or more transmission parameters for one or more second wireless communication devices associated with the TX parameter IE, wherein the second wireless transmission is from one of the one or more second wireless communication devices; and obtain one or more wireless sensing measurements associated with the second wireless transmission and the one or more transmission parameters. obtain one or more transmission parameters for one or more second wireless communication devices associated with the TX parameter IE, wherein the second wireless transmission is from one of the one or more second wireless communication devices; and obtain one or more wireless sensing measurements associated with the second wireless transmission and the one or more transmission parameters.
A crystal form of a compound represented by formula (I), wherein an X-ray powder diffraction spectrum of the crystal form comprises characteristic peaks at 2θ values of 13.07°±0.2°, 16.84±0.2°, and 18.51±0.2°.
A method, comprising: receiving, at a self-optimizing network entity, SON, measurements of radio frequency parameters of a distributed antenna system , DAS; determining, with the SON, adjustments to operations and management parameters of a radio base station , RBS, using the measurements of the radio frequency parameters of the DAS ; and sending, from the SON, commands to the RBS for changing the operations and management parameters of the RBS using the determined adjustments ; wherein the radio frequency parameters of the DAS include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power; wherein adjustments to the operations and management parameters include an updated value for an uplink RBS gain; and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise, and summing the uplink DAS noise rise with a difference of the uplink DAS gain and the downlink DAS gain. receiving, at a self-optimizing network entity, SON, measurements of radio frequency parameters of a distributed antenna system , DAS; determining, with the SON, adjustments to operations and management parameters of a radio base station , RBS, using the measurements of the radio frequency parameters of the DAS ; and sending, from the SON, commands to the RBS for changing the operations and management parameters of the RBS using the determined adjustments ; wherein the radio frequency parameters of the DAS include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power; wherein adjustments to the operations and management parameters include an updated value for an uplink RBS gain; and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise, and summing the uplink DAS noise rise with a difference of the uplink DAS gain and the downlink DAS gain.
Method for characterizing a sample , including a liquid medium containing particles , the method comprising the following steps: a) illuminating the sample using a light source that is able to emit an incident light wave that propagates towards the sample; b) acquiring, using an image sensor , at least one image of the light wave transmitted by the sample thus illuminated; c) characterizing the sample depending on an intensity of the light wave detected by the image sensor; the method comprising, prior to step b), a step of applying an acoustic wave to the sample, said acoustic wave forming pressure nodes and pressure antinodes in the sample, so as to separate, in the latter, a portion poor in particles and a portion rich in particles, the method being characterized in that step c) includes: - identifying, in the image, a region of interest corresponding to the portion of the sample that is poor in particles; - determining an optical property of the liquid medium, in the region of interest thus identified, the optical property varying depending on an amount of an analyte in the sample; - estimating the amount of the analyte in the liquid medium , on the basis of said optical property in the region of interest . a) illuminating the sample using a light source that is able to emit an incident light wave that propagates towards the sample; b) acquiring, using an image sensor , at least one image of the light wave transmitted by the sample thus illuminated; c) characterizing the sample depending on an intensity of the light wave detected by the image sensor; - identifying, in the image, a region of interest corresponding to the portion of the sample that is poor in particles; - determining an optical property of the liquid medium, in the region of interest thus identified, the optical property varying depending on an amount of an analyte in the sample; - estimating the amount of the analyte in the liquid medium , on the basis of said optical property in the region of interest .
A method for wireless communication, comprising: receiving a first data transmission from a first user equipment (UE) at a first base station, the first UE being served by the first base station; receiving uplink control information (UCI) from a second UE at the first base station, the second UE not being served by the first base station, wherein the first base station receives the UCI on resources allocated to the second UE for sending the UCI, and wherein the first base station is informed of the resources or wherein the first base station reserves the resources for the UE; receiving at the first base station additional UCI for the second UE from the second base station; processing at the first base station a second data transmission from the second UE based on the UCI from the second UE and the additional UCI from the second base station, the second data transmission being sent by the second UE to a second base station serving the second UE, wherein the processing the second data transmission comprises performing interference cancellation for the second data transmission from the second UE based on the UCI from the second UE and the additional UCI from the second base station by estimating the interference due to the second data transmission; and processing at the first base station the first data transmission from the first UE, wherein the first data transmission from the first UE is processed after the interference cancellation. receiving a first data transmission from a first user equipment (UE) at a first base station, the first UE being served by the first base station; receiving uplink control information (UCI) from a second UE at the first base station, the second UE not being served by the first base station, wherein the first base station receives the UCI on resources allocated to the second UE for sending the UCI, and wherein the first base station is informed of the resources or wherein the first base station reserves the resources for the UE; receiving at the first base station additional UCI for the second UE from the second base station; processing at the first base station a second data transmission from the second UE based on the UCI from the second UE and the additional UCI from the second base station, the second data transmission being sent by the second UE to a second base station serving the second UE, wherein the processing the second data transmission comprises performing interference cancellation for the second data transmission from the second UE based on the UCI from the second UE and the additional UCI from the second base station by estimating the interference due to the second data transmission; and processing at the first base station the first data transmission from the first UE, wherein the first data transmission from the first UE is processed after the interference cancellation.
A method of controlling a dishwasher, the method comprising: linking (S110) a dishwasher and an air quality detection device , which is provided outside the dishwasher , with each other; determining (S120) whether to activate an automatically open door of the dishwasher ; determining (S130) whether or not quality of indoor air detected from the air quality detection device is within a set range; characterized in that when the quality of the indoor air deviates from the set range, recommending (S140) the user to deactivate automatically open door of the dishwasher , and maintaining (S150) or deactivating the automatically open door of the dishwasher based on a command input from the user. linking (S110) a dishwasher and an air quality detection device , which is provided outside the dishwasher , with each other; determining (S120) whether to activate an automatically open door of the dishwasher ; determining (S130) whether or not quality of indoor air detected from the air quality detection device is within a set range; characterized in that when the quality of the indoor air deviates from the set range, recommending (S140) the user to deactivate automatically open door of the dishwasher , and maintaining (S150) or deactivating the automatically open door of the dishwasher based on a command input from the user.