mhurhangee/patent-ind-claim-en huggingface dataset:
Laundry care machine with a dispenser tray for introducing a cleaning agent, with an outer tub and a laundry drum arranged in a rotatable manner therein for accommodating laundry , a wash liquor duct that is arranged between the dispenser tray and the outer tub , wherein a siphon with a peripheral wall is arranged in the wash liquor duct , wherein the wash liquor duct has an additional ventilation duct , through which air is able to flow into the outer tub when the siphon is full, with the formation of a negative pressure in the outer tub , wherein the additional ventilation duct has a ventilation duct wall along a contour of the siphon , wherein the ventilation duct wall has an inlet for letting air into the additional ventilation duct and an outlet for letting air out of the additional ventilation duct , characterised in that the ventilation duct wall and the peripheral wall of the siphon are dimensioned in such a way that reserves of the water remain in the siphon during spinning and seal off the siphon in an air-tight manner following the spinning.
A method for performing beam management, comprising: by a user equipment device, UE : establishing wireless communication with a base station ; performing at least one measurement of a downlink wireless communication from the base station to the UE ; determining at least one transmission constraint related to uplink transmission by the UE ; selecting an uplink beam from a plurality of potential uplink beams based at least in part on the at least one measurement and the at least one transmission constraint; selecting a downlink beam from a plurality of potential downlink beams based at least in part on the at least one measurement; transmitting a report to the base station , wherein the report indicates the downlink beam and the uplink beam; receiving , from the base station , an indication of a selected uplink beam and a selected downlink beam, wherein the indication is responsive to the report; and communicating, with the base station , using the selected uplink beam and the selected downlink beam. establishing wireless communication with a base station ; performing at least one measurement of a downlink wireless communication from the base station to the UE ; determining at least one transmission constraint related to uplink transmission by the UE ; selecting an uplink beam from a plurality of potential uplink beams based at least in part on the at least one measurement and the at least one transmission constraint; selecting a downlink beam from a plurality of potential downlink beams based at least in part on the at least one measurement; transmitting a report to the base station , wherein the report indicates the downlink beam and the uplink beam; receiving , from the base station , an indication of a selected uplink beam and a selected downlink beam, wherein the indication is responsive to the report; and communicating, with the base station , using the selected uplink beam and the selected downlink beam.
A method comprising: examining whether a depth block co-located with a texture block of a depth-enhanced multiview video is available for inter prediction of the texture block being coded or decoded; characterized in that if the examination indicates that a co-located depth sample within the co-located depth block is unavailable for inter prediction of the texture block, the method comprises: padding or interpolating the co-located depth sample on the basis of one or more available depth samples; treating the co-located depth block as available; determining an inter prediction method of the texture block, which uses the co-located depth block; and deriving a prediction block for the texture block on the basis of the inter prediction method by using the co-located depth block. examining whether a depth block co-located with a texture block of a depth-enhanced multiview video is available for inter prediction of the texture block being coded or decoded; characterized in that if the examination indicates that a co-located depth sample within the co-located depth block is unavailable for inter prediction of the texture block, the method comprises: padding or interpolating the co-located depth sample on the basis of one or more available depth samples; treating the co-located depth block as available; determining an inter prediction method of the texture block, which uses the co-located depth block; and deriving a prediction block for the texture block on the basis of the inter prediction method by using the co-located depth block. padding or interpolating the co-located depth sample on the basis of one or more available depth samples; treating the co-located depth block as available; determining an inter prediction method of the texture block, which uses the co-located depth block; and deriving a prediction block for the texture block on the basis of the inter prediction method by using the co-located depth block.
Tubular conduit comprising an enzymatically cross-linked silk fibroin hydrogel, wherein said tube is predominantly β-sheet conformation and comprises a porosity from 1-70% and a pore size from 1-10 μm.
A method of wireless communication of a first master device, wherein the first master device is in communication with a second master device and a slave device, wherein the slave device is a user equipment, the first master device includes a first macro evolved NodeB, eNB, a first radio resource head, RRH, or a first femto cell, and wherein the second master device includes one of a second eNB, a second RRH, or a second femto cell, the method comprising: receiving , from the second master device, information of the resource allocation to the first master device on a backhaul link, the resource allocation being transmitted on a licensed channel, and the information of the resource allocation including an indication to reserve an unlicensed channel; receiving data in accordance with the resource allocation on the unlicensed channel from the slave device; performing , at the first master device, an initial clear channel assessment, ICCA, procedure or an extended CCA, ECCA, procedure to obtain a transmission opportunity on the unlicensed channel prior to the reception of the data in response to the received indication to reserve the unlicensed channel; and occupying , by the first master device, the unlicensed channel immediately prior to the transmission opportunity. receiving , from the second master device, information of the resource allocation to the first master device on a backhaul link, the resource allocation being transmitted on a licensed channel, and the information of the resource allocation including an indication to reserve an unlicensed channel; receiving data in accordance with the resource allocation on the unlicensed channel from the slave device; performing , at the first master device, an initial clear channel assessment, ICCA, procedure or an extended CCA, ECCA, procedure to obtain a transmission opportunity on the unlicensed channel prior to the reception of the data in response to the received indication to reserve the unlicensed channel; and occupying , by the first master device, the unlicensed channel immediately prior to the transmission opportunity.
A method performed by a wireless communications device, the method comprising: disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; and adjusting a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver . disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; and adjusting a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver .
A torque-resisting hose mounting for attenuating torque arising when at least first and second flexible, fluid-carrying hoses each connected in a fluid-communicating manner with a pipe fitting are differentially pressurized, characterized in that the torque-resisting hose mounting comprises: a. a first pipe fitting to which a first flexible, fluid-carrying hose is directly or indirectly connectable; b. a second pipe fitting to which a second flexible, fluid-carrying hose is directly or indirectly connectable; c. a first clamp comprising a first pair of clamp jaws for gripping the first flexible hose or a first hose extension connected thereto; d. a second clamp comprising a second pair of clamp jaws for gripping the second flexible hose or a second hose extension connected thereto; and e. a rigidifying member interconnecting the first and second clamps , characterised in that each jaw is essentially cuboidal in shape with a substantially rectangular face of the cuboid juxtaposed to a counterpart rectangular face of the other jaw of the respective pair. a. a first pipe fitting to which a first flexible, fluid-carrying hose is directly or indirectly connectable; b. a second pipe fitting to which a second flexible, fluid-carrying hose is directly or indirectly connectable; c. a first clamp comprising a first pair of clamp jaws for gripping the first flexible hose or a first hose extension connected thereto; d. a second clamp comprising a second pair of clamp jaws for gripping the second flexible hose or a second hose extension connected thereto; and e. a rigidifying member interconnecting the first and second clamps , characterised in that each jaw is essentially cuboidal in shape with a substantially rectangular face of the cuboid juxtaposed to a counterpart rectangular face of the other jaw of the respective pair.
A method for transmitting uplink data in a licensed-assisted access, LAA, system, comprising: receiving (S110) mode configuration indication information sent by a network device, wherein the mode configuration indication information is used to indicate that a synchronous hybrid automatic repeat request, HARQ, mode and an asynchronous HARQ mode are configured for uplink transmission of user equipment on an unlicensed carrier; and performing (S120) uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode and according to the mode configuration indication information; wherein the performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode comprises: retransmitting uplink data by using the asynchronous HARQ mode when it is determined that a needed resource has not been obtained through contention, wherein the needed resource is a resource that is on the unlicensed carrier and that is needed when the uplink data is retransmitted according to the synchronous HARQ mode. receiving (S110) mode configuration indication information sent by a network device, wherein the mode configuration indication information is used to indicate that a synchronous hybrid automatic repeat request, HARQ, mode and an asynchronous HARQ mode are configured for uplink transmission of user equipment on an unlicensed carrier; and performing (S120) uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode and according to the mode configuration indication information; wherein the performing uplink transmission on the unlicensed carrier by using the synchronous HARQ mode or the asynchronous HARQ mode comprises: retransmitting uplink data by using the asynchronous HARQ mode when it is determined that a needed resource has not been obtained through contention, wherein the needed resource is a resource that is on the unlicensed carrier and that is needed when the uplink data is retransmitted according to the synchronous HARQ mode.
Portable power tool, in particular circular saw, having a housing unit , having at least one guide unit at least for guiding a pivoting movement of the housing unit , having at least one setting unit (16a; 16b) for setting at least one cutting parameter, in particular a cutting depth and/or a cutting angle, which has at least one securing element , arranged on the guide unit, for securing a position of the housing unit and/or for limiting a movement of the housing unit , having at least one operator control unit (20a; 20b), which has at least one operator control element (22a, 34a; 22b, 34b) at least for acting on the securing element , and having at least one at least partially flexible transmission unit (24a, 36a; 24b, 36b), which is intended to transmit a movement of the operator control element (22a, 34a; 22b, 34b) to the securing element , wherein the guide unit comprises at least one guide element for the housing unit , which is in the form of a slotted guide, a guide groove or of a guide rail, characterized in that the securing element is in the form of a latching element, wherein the transmission unit (24a, 36a; 24b, 36b) has at least one transmission element for connecting the operator control element (22a, 34a; 22b, 34b) and the securing element , which is in the form of a flexible tensile-force transmission element in the form of a cable pull and/or Bowden cable or of an incompressible compressive-force transmission element, wherein the transmission unit (24a, 36a; 24b, 36b) is provided for transmitting at least a part of an operating force acting on the operator control element (22a, 34a; 22b, 34b) as an actuating force to the securing element , and wherein at least a majority of the transmission unit (24a, 36a; 24b, 36b) is arranged within the housing unit .
A panel structure for a drawer , which comprises a panel base and a panel attachment placed thereon, which comprises at least the following features: (a) two support assemblies and at least one surface element , (b) wherein the two support assemblies each comprise a receptacle channel having an again U-shaped cross section on the sides thereof facing toward the surface element , wherein a corresponding first or second edge , respectively, of the surface element engages in each of the receptacle channels , (c) wherein one or both of the support assemblies is/are designed as an angle arrangement, (d) wherein one support assembly is a front panel support assembly and the other support assembly is a rear panel support assembly , characterized in that (e) the front panel support assembly is fastenable on the panel base and on the front panel , (f) the angle arrangement of the front panel support assembly comprises a fastening and support angle and a vertical frame bracket covering it, and/or the angle arrangement of the rear wall support assembly comprises a fastening and support angle and a vertical frame bracket covering it, (g) wherein a horizontal leg of the respective fastening and supporting angles are each fastened to or in a receptacle channel formed on the upper side of the panel base , wherein the receptacle channel also has a U-shaped cross section. (a) two support assemblies and at least one surface element , (b) wherein the two support assemblies each comprise a receptacle channel having an again U-shaped cross section on the sides thereof facing toward the surface element , wherein a corresponding first or second edge , respectively, of the surface element engages in each of the receptacle channels , (c) wherein one or both of the support assemblies is/are designed as an angle arrangement, (d) wherein one support assembly is a front panel support assembly and the other support assembly is a rear panel support assembly , characterized in that (e) the front panel support assembly is fastenable on the panel base and on the front panel , (f) the angle arrangement of the front panel support assembly comprises a fastening and support angle and a vertical frame bracket covering it, and/or the angle arrangement of the rear wall support assembly comprises a fastening and support angle and a vertical frame bracket covering it, (g) wherein a horizontal leg of the respective fastening and supporting angles are each fastened to or in a receptacle channel formed on the upper side of the panel base , wherein the receptacle channel also has a U-shaped cross section.
Device for monitoring a on-load tap-changer , comprising - a motor drive ; - a monitoring unit ; - a sensor for detecting an acoustic signal that is generated when the load changeover switch jumps during a changeover; - characterized in that the monitoring unit determines a torque curve in the on-load tap-changer on the basis of a torque curve on the motor drive and the acoustic signal of the sensor . - a motor drive ; - a monitoring unit ; - a sensor for detecting an acoustic signal that is generated when the load changeover switch jumps during a changeover; - characterized in that the monitoring unit determines a torque curve in the on-load tap-changer on the basis of a torque curve on the motor drive and the acoustic signal of the sensor .
A process for preparing a non-oily aqueous-based solution comprising: a) from 10 to 50 weight percent witch hazel; b) from 0.01 to 2 weight percent of ethoxylated shea butter; and c) from 0.01 to 0.20 weight percent of vitamin E acetate; wherein the weight percent is based on a total weight of said solution, for use in a wet wipe, wherein said process comprises the steps of: a) preparing a side-phase by i) melting the ethoxylated shea butter at 50 degrees C in a side-phase mixing vessel; ii) adding the vitamin E acetate to the side-phase mixing vessel; and iii) dissolving the vitamin E acetate in the ethoxylated shea butter with mixing; b) adding this side-phase to a main batch at about 25 degrees C with vigorous mixing; and c) mixing at 25 degrees C for approximately 15 minutes. a) from 10 to 50 weight percent witch hazel; b) from 0.01 to 2 weight percent of ethoxylated shea butter; and c) from 0.01 to 0.20 weight percent of vitamin E acetate; a) preparing a side-phase by i) melting the ethoxylated shea butter at 50 degrees C in a side-phase mixing vessel; ii) adding the vitamin E acetate to the side-phase mixing vessel; and iii) dissolving the vitamin E acetate in the ethoxylated shea butter with mixing; i) melting the ethoxylated shea butter at 50 degrees C in a side-phase mixing vessel; ii) adding the vitamin E acetate to the side-phase mixing vessel; and iii) dissolving the vitamin E acetate in the ethoxylated shea butter with mixing; b) adding this side-phase to a main batch at about 25 degrees C with vigorous mixing; and c) mixing at 25 degrees C for approximately 15 minutes.
A method of preparing a hydrophilic porous PTFE membrane comprising: (i) preparing a blend comprising PTFE and an amphiphilic copolymer, and optionally a lubricant; (ii) extruding the blend into a tape; (iii) biaxially stretching the tape to obtain a hydrophilic porous membrane; wherein the amphiphilic copolymer is of formula (I): wherein the amphiphilic copolymer is a random or block copolymer, Rf is a perfluoro-substituted group, wherein Rh 1 and Rh 2 are hydrophilic groups independently selected from hydroxyl, acyloxy, trifluoroacetyl, alkyloxy, allyloxy, alkylthio, and alkylthiopropyloxy, or chlorine, wherein the alkyl portion of alkylthio and alkylthiopropyloxy are optionally substituted with hydroxyl, carboxylic acid, sulfonic acid, phosphonic acid, quaternary ammonium, alkylsulfonyl, heterocyclyl. m and n are independently from 10 to 1000, and o is from 0 to 1000; Y is hydroxyl. (i) preparing a blend comprising PTFE and an amphiphilic copolymer, and optionally a lubricant; (ii) extruding the blend into a tape; (iii) biaxially stretching the tape to obtain a hydrophilic porous membrane; m and n are independently from 10 to 1000, and o is from 0 to 1000; Y is hydroxyl.
An environment cognition system for construction machinery , comprising: a first sensor installed on an upper surface of a cabin of the construction machinery to obtain shape information on a front ground; and a second sensor installed on a lower surface of a boom of the construction machinery to obtain shape information data in an excavation area, wherein the second sensor is installed in an installation region (R2) that does not overlap a trajectory (Cb) of a circle drawn by an end (P4) of a bucket , with an arm folded as far as possible, wherein the second sensor comprises a LiDAR (Light Detection And Ranging) sensor, the environment cognition system for construction machinery characterized in that if a thickness (T) of the LiDAR sensor is determined, intersection points (c, d) at which the trajectory (Cb) crosses an installation space (P) formed when the LiDAR sensor moves along an installation surface (R1) on which the LiDAR sensor is to be installed are determined, an interference space (OR) is obtained by finding positions of the intersection points (c, d) using an equation of a secant of the circle, and an interference-free region is determined as the installation region (R2) by excluding the interference space (OR) from the installation region (R2). a first sensor installed on an upper surface of a cabin of the construction machinery to obtain shape information on a front ground; and a second sensor installed on a lower surface of a boom of the construction machinery to obtain shape information data in an excavation area, wherein the second sensor is installed in an installation region (R2) that does not overlap a trajectory (Cb) of a circle drawn by an end (P4) of a bucket , with an arm folded as far as possible, wherein the second sensor comprises a LiDAR (Light Detection And Ranging) sensor,