mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treatment apparatus comprising: a cabinet ; a tub disposed in the cabinet so as to contain washing water; a drum rotatably disposed in the tub so as to contain laundry; a housing secured to the drum ; a receiving space defined in the housing so as to form a closed loop; a balancing unit movably disposed in the receiving space so as to resolve an unbalanced state of the drum ; a ring provided in the receiving space and connected to the balancing unit so as to move the balancing unit ; and an actuator for moving the ring in the receiving space , wherein the balancing unit is revolvable 360 degrees along and within the receiving space , wherein the ring includes a ring guide protrusion or a ring guide groove , wherein the receiving space includes a receiving-space groove or a receiving-space protrusion having a shape corresponding to a shape of the ring guide protrusion or to a shape of the ring guide groove , and wherein the ring moves in the receiving space by means of the actuator . a cabinet ; a tub disposed in the cabinet so as to contain washing water; a drum rotatably disposed in the tub so as to contain laundry; a housing secured to the drum ; a receiving space defined in the housing so as to form a closed loop; a balancing unit movably disposed in the receiving space so as to resolve an unbalanced state of the drum ; a ring provided in the receiving space and connected to the balancing unit so as to move the balancing unit ; and an actuator for moving the ring in the receiving space , wherein the balancing unit is revolvable 360 degrees along and within the receiving space , wherein the ring includes a ring guide protrusion or a ring guide groove , wherein the receiving space includes a receiving-space groove or a receiving-space protrusion having a shape corresponding to a shape of the ring guide protrusion or to a shape of the ring guide groove , and wherein the ring moves in the receiving space by means of the actuator .
An organic light emitting device comprising: one or more insulation layers (131, 133, 160; 460; 531, 533, 560); a first electrode having a plurality of curved parts and a connection part between the curved parts , the curved parts including concave parts and/or convex parts , wherein an insulation layer of the one or more insulation layers (131, 133, 160; 460; 531, 533, 560) is disposed under the first electrode , and wherein the insulation layer has a flat top surface; an organic light emitting layer disposed on the first electrode ; and a second electrode disposed on the organic light emitting layer , wherein the concave parts or the convex parts have a tapered shape, the curved parts include one or more inclined side surfaces , respectively, wherein the inclined surfaces (141aa, 441, aa, 541ca) are linear, and the connection part is flat and parallel to a flat top surface of the one or more insulation layers (131, 133, 160; 460; 531, 533, 560) that is in contact with the first electrode , and wherein the second electrode has curved parts corresponding to that of the first electrode . one or more insulation layers (131, 133, 160; 460; 531, 533, 560); a first electrode having a plurality of curved parts and a connection part between the curved parts , the curved parts including concave parts and/or convex parts , wherein an insulation layer of the one or more insulation layers (131, 133, 160; 460; 531, 533, 560) is disposed under the first electrode , and wherein the insulation layer has a flat top surface; an organic light emitting layer disposed on the first electrode ; and a second electrode disposed on the organic light emitting layer , wherein the concave parts or the convex parts have a tapered shape, the curved parts include one or more inclined side surfaces , respectively, wherein the inclined surfaces (141aa, 441, aa, 541ca) are linear, and the connection part is flat and parallel to a flat top surface of the one or more insulation layers (131, 133, 160; 460; 531, 533, 560) that is in contact with the first electrode , and wherein the second electrode has curved parts corresponding to that of the first electrode .
A method for selecting a Modulation and Coding Selection, MCS, level by a base station in a wireless mobile communication system, the method comprising: receiving a signal periodically from a terminal; measuring the intensity of the signal; determining a location of the terminal based on the measured intensity; determining a moving direction of the terminal based on a change of the measured intensity; determining a moving velocity of the terminal based on a velocity at which the measured intensity increases or decreases; and selecting an MCS level that is to be allocated to the terminal based on the location, the moving direction, and the moving velocity of the terminal. receiving a signal periodically from a terminal; measuring the intensity of the signal; determining a location of the terminal based on the measured intensity; determining a moving direction of the terminal based on a change of the measured intensity; determining a moving velocity of the terminal based on a velocity at which the measured intensity increases or decreases; and selecting an MCS level that is to be allocated to the terminal based on the location, the moving direction, and the moving velocity of the terminal.
Method for adjusting a piezoelectric torque sensor of a measuring device , which is preferably part of a test bench , in particular according to one of claims 11 to 15, for determining a torque which is applied to a test specimen due to a force flow, the measuring device having a piezoelectric torque sensor and a second torque sensor based on a different measuring principle, which is designed in such a way to continuously detect static torques, wherein the measuring device is set up in such a way that both torque sensors measure torques in the force flow , wherein a target measurement signal of the piezoelectric torque sensor is determined on the basis of a torque measurement by the second torque sensor , and wherein the detected measurement signal of the piezoelectric torque sensor is adjusted and output on the basis of the determined target measurement signal.
Method in a first node for providing , to a second node, a parameter value associated with a relation between a transmission power level of a first channel and a transmission power level of a second channel from the second node , the method comprising the steps of: receiving a signal from the second node , the signal comprising a transfer service request for a first type of service, obtaining the parameter value, based on the requested transfer service of the second node , by acquiring statistics on multiple parameter values that have been frequently used previously for the requested transfer service and selecting the most frequently used parameter value from the acquired statistics, and signalling the obtained parameter value to the second node . receiving a signal from the second node , the signal comprising a transfer service request for a first type of service, obtaining the parameter value, based on the requested transfer service of the second node , by acquiring statistics on multiple parameter values that have been frequently used previously for the requested transfer service and selecting the most frequently used parameter value from the acquired statistics, and signalling the obtained parameter value to the second node .
A method comprising: receiving , at a first network device in a fabric network and from a second network device in the fabric network , an identification of a command to modify a current network device configuration, wherein the first network device and the second network device are configured according to the current network device configuration; authenticating , by a first fabric availability and synchronization, FAS, agent executing on the first network device , the command; modifying , by the first network device in response to authenticating the command, the current configuration of the first network device based on the command, wherein modifying the current configuration of the first network device defines a new configuration; storing the identification of the command; updating , in response to modifying the current configuration of the first network device , a state identifier associated with the current configuration of the first network device to correspond to a new state identifier associated with the new configuration; and transmitting , by the first FAS agent to a second FAS agent executing on the second network device of the fabric network , a control packet that includes the new state identifier, wherein upon receiving the control packet, the second FAS agent retrieves the identification of the command and implements the command on the second network device to modify the current configuration of the second network device to the new configuration. receiving , at a first network device in a fabric network and from a second network device in the fabric network , an identification of a command to modify a current network device configuration, wherein the first network device and the second network device are configured according to the current network device configuration; authenticating , by a first fabric availability and synchronization, FAS, agent executing on the first network device , the command; modifying , by the first network device in response to authenticating the command, the current configuration of the first network device based on the command, wherein modifying the current configuration of the first network device defines a new configuration; storing the identification of the command; updating , in response to modifying the current configuration of the first network device , a state identifier associated with the current configuration of the first network device to correspond to a new state identifier associated with the new configuration; and transmitting , by the first FAS agent to a second FAS agent executing on the second network device of the fabric network , a control packet that includes the new state identifier, wherein upon receiving the control packet, the second FAS agent retrieves the identification of the command and implements the command on the second network device to modify the current configuration of the second network device to the new configuration.
A method for controlling at least two drivable industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5) in an area of a goods logistics facility , wherein the industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5) have in each case an industrial truck drive control device for controlling the travel movements of the respective industrial truck (30.1, 30.2, 30.3, 30.4, 30.5), wherein the industrial truck drive control devices in each case are connected or will be connected, preferably by wireless means, with a, in particular central and/or stationary, control device of the goods logistics facility , wherein individual travel movement control commands and individual industrial truck identifications are sent by the control apparatus of the goods logistics facility to the respective industrial truck drive control devices of the industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5), so that in a local region of the area of the goods logistics facility in which the industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5) are, preferably driven, moved simultaneously, the industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5) are moved, in particular driven, in various ways or are movable, in particular drivable, in a manner dependent on the individual travel movement control commands and dependent on the individual industrial truck identifications, characterized in that the industrial trucks (30.1, 30.2, 30.3, 30.4, 30.5) are provided with different priority designations by means of the individual travel movement control commands and by means of the individual industrial truck identifications, so that the industrial truck (30.1, 30.2, 30.3, 30.4, 30.5) provided with a higher priority designation is moved or can be moved, in particular driven, first in the local area compared to an industrial truck (30.1, 30.2, 30.3, 30.4, 30.5) provided with a lower priority designation.
A tire having a tread comprising at least two radially superposed portions which comprise a radially external portion intended to come into contact with ground during rolling, the radially external portion being made of a first rubber composition, and a radially internal portion made of a second rubber composition which is different from the first rubber composition; wherein the first rubber composition is based on at least: - an elastomer matrix; - a reinforcing filler comprising between 80 and 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising 0 to less than 20 phr of a liquid diene polymer having a glass transition temperature of less than -70°C; wherein the second rubber composition is based on at least: - an elastomer matrix; - a reinforcing filler comprising 20 to 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising between 5 and 100 phr of a liquid diene polymer having a glass transition temperature of less than -70°C; wherein the amount in phr of the liquid diene polymer in the first rubber composition is lower than that in the second rubber composition. - an elastomer matrix; - a reinforcing filler comprising between 80 and 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising 0 to less than 20 phr of a liquid diene polymer having a glass transition temperature of less than -70°C; - an elastomer matrix; - a reinforcing filler comprising 20 to 200 phr of a reinforcing inorganic filler; and - a plasticizing agent comprising between 5 and 100 phr of a liquid diene polymer having a glass transition temperature of less than -70°C;
A method for removing gypsum from calcium-containing material, wherein the method comprises cooling a cooled pregnant leach solution in a cooling device to obtain a further cooled pregnant leach solution ; precipitating gypsum from the further cooled pregnant leach solution to obtain a gypsum-depleted pregnant leach solution ; characterized in that the method comprises cooling a calcium-containing pregnant leach solution by indirectly contacting the calcium-containing pregnant leach solution with the gypsum-depleted pregnant leach solution to obtain the cooled pregnant leach solution ; the method comprising obtaining the calcium-containing pregnant leach solution by leaching the calcium-containing material in a sulphate solution, or by adjusting pH of the sulphate solution with the calcium-containing material; wherein the step of cooling the calcium-containing pregnant leach solution by indirectly contacting the calcium-containing pregnant leach solution with the gypsum-depleted pregnant leach solution is carried out in a heat exchanger , wherein the temperature of the calcium-containing pregnant leach solution entering the heat exchanger is 40 °C to 90 °C; the temperature of the cooled pregnant leach solution exiting the heat exchanger is 40 °C to 85 °C; the temperature of the gypsum-depleted pregnant leach solution entering the heat exchanger is 30 °C to 35 °C; the temperature of the gypsum-depleted pregnant leach solution exiting the heat exchanger is 30 °C to 43 °C.
An apparatus , comprising: an imaging unit configured to capture an image comprising at least first and second portions of a human body; a receiving unit configured to identify from the image, by estimating information on coordinates and an angle of a joint of the human body in a three-dimensional space, a first spatial position associated with a first reference point disposed along a first portion of the human body distal to a left or right shoulder, and a second spatial position associated with a second reference point disposed along a second portion of the human body distal to the other of the left or right shoulder; an identification unit configured to identify a group of objects based on at least the first spatial position; and a selection unit configured to select an object of the identified group based on the second spatial position. an imaging unit configured to capture an image comprising at least first and second portions of a human body; a receiving unit configured to identify from the image, by estimating information on coordinates and an angle of a joint of the human body in a three-dimensional space, a first spatial position associated with a first reference point disposed along a first portion of the human body distal to a left or right shoulder, and a second spatial position associated with a second reference point disposed along a second portion of the human body distal to the other of the left or right shoulder; an identification unit configured to identify a group of objects based on at least the first spatial position; and a selection unit configured to select an object of the identified group based on the second spatial position.
Fluid delivery device comprising at least one area onto which a support element including at least one well may be placed in a defined position, the fluid delivery device further comprising at least one pipetting device , said at least one pipetting device including a connector to releasably connect said at least one pipetting device with a disposable tip as well as a fluid displacement element which allows the aspiration and ejection of a defined volume of liquid to or from said disposable tip , said at least one pipetting device being movable in a vertical and preferably in at least one horizontal direction, wherein said fluid delivery device further comprises a blowing element with more than one aperture (8; 8.1 - 8.6) coupled to a source of pressurized gas , said at least one blowing element being movable in a vertical and preferably in at least one horizontal direction, characterized in that each of the apertures (8; 8.1 - 8.6) is connected by means of a tube to a common valve which is in turn connected to the source of pressurized gas , wherein each tube includes a pressure sensor.
A high-strength steel sheet having a chemical composition containing, by mass%, C: 0.07% to 0.30%, Si: 0.10% to 2.5%, Mn: 1.8% to 3.7%, P: 0.03% or less, S: 0.0020% or less, Sol. Al: 0.01% to 1.0%, N: 0.0006% to 0.0055%, O: 0.0008% to 0.0025%, optionally one or more of Ca: 0.0002% to 0.0030%, Ti: 0.01% to 0.1%, Nb: 0.01% to 0.1%, V: 0.001% to 0.1%, Zr: 0.001% to 0.1%, Cr: 0.01% to 1.0%, Mo: 0.01% to 0.20%, B: 0.0001% to 0.0030%, Cu: 0.01% to 0.5%, Ni: 0.01% to 0.5%, Sn: 0.001% to 0.1%, Sb: 0.005% to 0.05%, and REM and Mg in an amount of 0.0002% or more and 0.01% or less in total, and the balance being Fe and inevitable impurities, wherein a Mn-segregation degree in a region within 100 μm from a surface of the steel sheet in a thickness direction is 1.5 or less and wherein the Mn-segregation degree = (maximum Mn content/average Mn content) is determined by using an EPMA with a probe diameter of 2 μm and wherein MnS inclusions are not included in the amount of detected Mn, in a plane parallel to the surface of the steel sheet in a region within 100 μm from the surface of the steel sheet in the thickness direction, the number of oxide-based inclusion grains having a grain long diameter of 5 μm or more is 1000 or less per 100 mm 2 , a proportion of the number of oxide-based inclusion grains having a chemical composition containing alumina in an amount of 50 mass% or more, silica in an amount of 20 mass% or less, and calcia in an amount of 40 mass% or less to the total number of oxide-based inclusion grains having a grain long diameter of 5 μm or more is 80% or more, wherein the number, the particle size and the chemical composition of the oxide-based inclusion grains are obtained by performing SEM-EDX analysis, a metallographic structure including, in terms of volume fraction, a martensite phase and a bainite phase in an amount of 25% to 100% in total, a ferrite phase in an amount of less than 75% and including 0% , an austenite phase in an amount of less than 15% and including 0% and wherein the total volume fraction of other phases is 4% or less, and a tensile strength of 980 MPa or more.
A device (104 - 104(N)) configured to be coupled to a shared bus and further configured to: sense a magnetic field that enables the device to process a configuration mode command that requests the device to enter a configuration mode in which the device is enabled for configuration; receive, via the shared bus , the configuration mode command; enter the configuration mode only in response to receiving the configuration mode command while sensing the magnetic field; determine whether a parameter of the sensed magnetic field meets programmable predetermined criteria; and if the parameter of the sensed magnetic field meets the programmable predetermined criteria, the device is enabled for configuration and one or more configurable operating attributes or settings are updated based on one or more commands that are received from a controller over the shared bus ; otherwise, if the parameter of the sensed magnetic field does not meet the programmable predetermined criteria, the device is disabled for configuration and device configuration is not changed. sense a magnetic field that enables the device to process a configuration mode command that requests the device to enter a configuration mode in which the device is enabled for configuration; receive, via the shared bus , the configuration mode command; enter the configuration mode only in response to receiving the configuration mode command while sensing the magnetic field; determine whether a parameter of the sensed magnetic field meets programmable predetermined criteria; and if the parameter of the sensed magnetic field meets the programmable predetermined criteria, the device is enabled for configuration and one or more configurable operating attributes or settings are updated based on one or more commands that are received from a controller over the shared bus ; otherwise, if the parameter of the sensed magnetic field does not meet the programmable predetermined criteria, the device is disabled for configuration and device configuration is not changed.