mhurhangee/patent-ind-claim-en huggingface dataset:
Method for vulcanizing a tyre , comprising at least the following steps: - introducing the tyre into a vulcanizing chamber and carrying out a main vulcanizing process by treating the tyre with pressure and heat, whereby the tyre is brought into its final form and a curing of the material of the tyre takes place, - carrying out a temperature-controlling process after completion of the main vulcanizing process, wherein for this a temperature-controlling element is used for acting thermally on the tyre in order to post-cure the tyre , wherein - the temperature-controlling element is placed against the tyre , at least in certain regions, and the temperature (T) of the tyre is specifically influenced in certain regions by the temperature-controlling element for the specific post-curing of the tyre , characterized in that the temperature-controlling element acts thermally on the tyre with multiple temperature-controlling segments (12.i) and adjacent temperature-controlling segments (12.i) influence the temperature (T) of the tyre to differing degrees, wherein the multiple temperature-controlling segments (12.i) adjoin one another in the axial direction with respect to the tyre and can act on the temperature (T) of the tyre independently of one another. - introducing the tyre into a vulcanizing chamber and carrying out a main vulcanizing process by treating the tyre with pressure and heat, whereby the tyre is brought into its final form and a curing of the material of the tyre takes place, - carrying out a temperature-controlling process after completion of the main vulcanizing process, wherein for this a temperature-controlling element is used for acting thermally on the tyre in order to post-cure the tyre , wherein - the temperature-controlling element is placed against the tyre , at least in certain regions, and the temperature (T) of the tyre is specifically influenced in certain regions by the temperature-controlling element for the specific post-curing of the tyre , characterized in that
A method of controlling wireless local area network, WLAN, measurement report applicable to a user equipment, UE, the method comprising: receiving a configuration message (S201); determining whether to transmit a WLAN measurement result by checking a set of rules, wherein a rule of said set of rules comprises user preference setting of the UE restraining from using a given WLAN, after receiving configuration message (S202); and generating a WLAN measurement report comprising the WLAN measurement result (S203) and transmitting a response message comprising the WLAN measurement report in response to having determined to transmit the WLAN measurement result based on the set of rules (S204); or transmitting the response message comprising the WLAN measurement report which omits the WLAN measurement result in the WLAN measurement report in response to having determined to not transmit the WLAN measurement result based on the set of rules (S205), wherein said determining whether to transmit the WLAN measurement result by checking the set of rules comprises: determining to transmit the WLAN measurement result based on a rule of the set of rules is being satisfied (S302, S312, S402, S411), characterized in that the rule of the set of rules comprises: a candidate access point, AP, scanned and determined by the UE, wherein the candidate AP is not within an AP list received by the UE, wherein the AP list includes one or more AP suggested to the UE. receiving a configuration message (S201); determining whether to transmit a WLAN measurement result by checking a set of rules, wherein a rule of said set of rules comprises user preference setting of the UE restraining from using a given WLAN, after receiving configuration message (S202); and generating a WLAN measurement report comprising the WLAN measurement result (S203) and transmitting a response message comprising the WLAN measurement report in response to having determined to transmit the WLAN measurement result based on the set of rules (S204); or transmitting the response message comprising the WLAN measurement report which omits the WLAN measurement result in the WLAN measurement report in response to having determined to not transmit the WLAN measurement result based on the set of rules (S205),
A method for oxidatively dyeing keratin fibers, the method comprising the following method steps in the sequence indicated: a) applying a cosmetic agent (M1) to the keratin fibers, the cosmetic agent (M1) being applied only to individual strands, b) allowing the agent (M1) to act on the keratin fibers for a period of from 30 seconds to 40 minutes, c) applying a cosmetic agent (M2) to the keratin fibers that have been subjected to the cosmetic agent (M1), d) allowing the cosmetic agents (M1) and (M2) to act on the keratin fibers for a period of from 1 to 70 minutes, e) rinsing off the cosmetic agents (M1) and (M2), characterized in that - the cosmetic agent (M1) contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, - the cosmetic agent (M2) contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), - and the cosmetic agent (M1) and the cosmetic agent (M2) have identical pH values. a) applying a cosmetic agent (M1) to the keratin fibers, the cosmetic agent (M1) being applied only to individual strands, b) allowing the agent (M1) to act on the keratin fibers for a period of from 30 seconds to 40 minutes, c) applying a cosmetic agent (M2) to the keratin fibers that have been subjected to the cosmetic agent (M1), d) allowing the cosmetic agents (M1) and (M2) to act on the keratin fibers for a period of from 1 to 70 minutes, e) rinsing off the cosmetic agents (M1) and (M2), - the cosmetic agent (M1) contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, - the cosmetic agent (M2) contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), - and the cosmetic agent (M1) and the cosmetic agent (M2) have identical pH values.
A sensor device for use with fluid flow systems, the sensor device comprising: a force pulse generator coupled with a fluid flow system and configured to emit a force pulse; and a force pulse sensor coupled with the fluid flow system , wherein the force pulse sensor is configured to: receive the force pulse emitted by the force pulse generator ; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system , wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system , characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system . a force pulse generator coupled with a fluid flow system and configured to emit a force pulse; and a force pulse sensor coupled with the fluid flow system , wherein the force pulse sensor is configured to: receive the force pulse emitted by the force pulse generator ; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system , wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system , characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system . receive the force pulse emitted by the force pulse generator ; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system , wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system , characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system .
A method for wireless communication by a user equipment, UE, comprising: contending for access to a channel of a shared radio frequency spectrum band in accordance with an autonomous uplink configuration which indicates a transmission window available for autonomous uplink transmissions; gaining channel access and identifying a Maximum Channel Occupancy Time, MCOT, associated with autonomous uplink transmissions; determining a duration of an uplink transmission to be transmitted over the channel of the shared radio frequency spectrum band; determining one or more channel access parameters for use by one or more other transmitting devices different from the UE based at least in part on the duration of the uplink transmission, wherein determining one or more channel access parameters comprises: determining a difference between the MCOT and the duration of the uplink transmission, wherein the channel access parameters comprise at least the difference between the MCOT and the duration of the uplink transmission, indicated in the channel access parameters for use by the one or more other transmitting devices as a number of subframes available for use by the one or more other transmitting devices; and transmitting the uplink transmission over the channel of the shared radio frequency spectrum band in accordance with the autonomous uplink configuration, wherein the uplink transmission indicates the one or more of the channel access parameters for use by the one or more other transmitting devices, comprising at least the difference between the MCOT and the duration of the uplink transmission. contending for access to a channel of a shared radio frequency spectrum band in accordance with an autonomous uplink configuration which indicates a transmission window available for autonomous uplink transmissions; gaining channel access and identifying a Maximum Channel Occupancy Time, MCOT, associated with autonomous uplink transmissions; determining a duration of an uplink transmission to be transmitted over the channel of the shared radio frequency spectrum band; determining one or more channel access parameters for use by one or more other transmitting devices different from the UE based at least in part on the duration of the uplink transmission, wherein determining one or more channel access parameters comprises: determining a difference between the MCOT and the duration of the uplink transmission, wherein the channel access parameters comprise at least the difference between the MCOT and the duration of the uplink transmission, indicated in the channel access parameters for use by the one or more other transmitting devices as a number of subframes available for use by the one or more other transmitting devices; and transmitting the uplink transmission over the channel of the shared radio frequency spectrum band in accordance with the autonomous uplink configuration, wherein the uplink transmission indicates the one or more of the channel access parameters for use by the one or more other transmitting devices, comprising at least the difference between the MCOT and the duration of the uplink transmission.
Device for cutting a loaf of bread into slices having an input compartment adjacent to a set of blades comprising parallel oblong blades which can be driven in a back-and-forth movement in their longitudinal direction, wherein a pusher is provided in the input compartment , which pusher is movable between a retracted position with respect to the set of blades and an end-of-cut position and which allows to push a loaf of bread through the set of blades , the input compartment being accessible through an access opening for placing a loaf of bread to be cut in the input compartment between the set of blades and the pusher when the latter is in the retracted position, the device comprising detection means for detecting the presence of an object in the access opening , wherein these detection means cooperate with the drive of the set of blades to stop the movement of the blades when the presence of an object in the access opening is detected by the detection means while the blades are being driven in a back-and-forth movement, characterised in that the detection means cooperate with the drive of the set of blades and with the drive of the pusher in such a way that, when the presence of an object in the access opening is detected by the detection means while the pusher is in the retracted position, the movement of the blades is triggered and the pusher is moved from its retracted position to the end-of-cut position once the object is no longer detected in the access opening by the detection means.
A system (400, 400', 400") comprising an implantable microphone outputting a first signal; a noise cancellation sub-system configured to at least partially cancel a body conducted noise component from the first signal, wherein the noise cancellation sub-system incorporates an accelerometer and an adaptive filter apparatus controlled by a control unit that runs a first adaptive algorithm to control a filter of the adaptive filter apparatus , wherein an output of the adaptive filter apparatus is obtained by filtering an output of said accelerometer with the filter of the adaptive filter apparatus and wherein the output is fed to an adder to be subtracted from an output of the implantable microphone , wherein the first signal includes the body conducted noise component and an ambient sound component, and characterized in that the system comprises a microphone external to a recipient outputting a second signal and in that the noise cancellation sub-system is configured to at least partial cancel the body conducted noise component using the first adaptive algorithm that is based on the second signal that temporally preceded the first signal, wherein the second signal is based on captured sound that is at least one of (i) completely free of body conducted noise or (ii) completely comprised of ambient sound.
A power interface , comprising: a housing having an inner wall , the inner wall defining a stopping groove ; and a connection body , disposed in the housing and comprising a first encapsulation portion , a second encapsulation portion , and a plurality of pins spaced apart, wherein partial outer periphery of the pins is wrapped by the first encapsulation portion , and the first encapsulation portion is connected to the housing , the first encapsulation portion is made from polyamide resin and has an engaging flange arranged at a rear end of the pins , and the engaging flange is engaged in the stopping groove ; the second encapsulation portion is embedded in the first encapsulation portion , and a partial outer peripheral wall of the second encapsulation portion is configured as a front-end surface of the connection body ; wherein the engaging flange has a first engaging protrusion arranged at each of two opposite first sides of the engaging flange respectively and a plurality of second engaging protrusions arranged at each of two opposite second sides of the engaging flange respectively; wherein the first sides are perpendicular to the second sides; and wherein an engaging portion is arranged on the inner wall where the stopping groove is defined, and the first engaging protrusion and the second engaging protrusions are engaged with the engaging portion . a housing having an inner wall , the inner wall defining a stopping groove ; and a connection body , disposed in the housing and comprising a first encapsulation portion , a second encapsulation portion , and a plurality of pins spaced apart, wherein partial outer periphery of the pins is wrapped by the first encapsulation portion , and the first encapsulation portion is connected to the housing , the first encapsulation portion is made from polyamide resin and has an engaging flange arranged at a rear end of the pins , and the engaging flange is engaged in the stopping groove ; the second encapsulation portion is embedded in the first encapsulation portion , and a partial outer peripheral wall of the second encapsulation portion is configured as a front-end surface of the connection body ; wherein the engaging flange has a first engaging protrusion arranged at each of two opposite first sides of the engaging flange respectively and a plurality of second engaging protrusions arranged at each of two opposite second sides of the engaging flange respectively; wherein the first sides are perpendicular to the second sides; and wherein an engaging portion is arranged on the inner wall where the stopping groove is defined, and the first engaging protrusion and the second engaging protrusions are engaged with the engaging portion .
A control valve assembly for an indirect pneumatic control, in particular of a pneumatically operated vane motor of a hoist, comprising - two pneumatic sequentially arranged valve units , - one working fluid inlet and one control fluid inlet, - a working fluid channel connecting the working fluid inlet through the two valve units , to an outlet , - in each case, a valve piston arranged within a valve cylinder of the first and second valve unit and movable between an open and a closed position, - in each case, a spring element which biases the first and the second valve piston toward the closed position, - in each case, a control pressure chamber connected to the control fluid inlet for applying a control pressure counteracting the bias of the spring element to the respective valve piston , wherein - the first valve unit is formed such that when a control pressure is applied in the first control pressure chamber , the first valve piston is moved from the closed to the open position, and wherein - two opposite valve surfaces which are angled relative to each other are arranged on the valve cylinder and the valve piston so as to extend along the direction of movement (V) in the second valve unit in a blocking and control region of the working fluid channel such that the valve surfaces form a valve opening opened at varying widths when the valve piston is moved in the valve cylinder because of a changing control pressure, and the working pressure can be finely adjusted corresponding to the valve opening width depending on the control pressure. - two pneumatic sequentially arranged valve units , - one working fluid inlet and one control fluid inlet, - a working fluid channel connecting the working fluid inlet through the two valve units , to an outlet , - in each case, a valve piston arranged within a valve cylinder of the first and second valve unit and movable between an open and a closed position, - in each case, a spring element which biases the first and the second valve piston toward the closed position, - in each case, a control pressure chamber connected to the control fluid inlet for applying a control pressure counteracting the bias of the spring element to the respective valve piston , wherein - the first valve unit is formed such that when a control pressure is applied in the first control pressure chamber , the first valve piston is moved from the closed to the open position, and wherein - two opposite valve surfaces which are angled relative to each other are arranged on the valve cylinder and the valve piston so as to extend along the direction of movement (V) in the second valve unit in a blocking and control region of the working fluid channel such that the valve surfaces form a valve opening opened at varying widths when the valve piston is moved in the valve cylinder because of a changing control pressure, and the working pressure can be finely adjusted corresponding to the valve opening width depending on the control pressure.
A cap assembly for a secondary battery , comprising: a cap plate having an electrode lead-out hole ; an electrode terminal composed only of a terminal plate , wherein the terminal plate is located at a side of the cap plate and covers the electrode lead-out hole ; a first fixing member at least partly surrounding the terminal plate to fix the electrode terminal to the first fixing member ; and a second fixing member connected with the cap plate and including a main portion , wherein the second fixing member is separated from the electrode terminal by the first fixing member ; wherein the main portion is provided with an engaging hole and the first fixing member is provided with an inserting portion , and the inserting portion is inserted into the engaging hole , and the terminal plate and the second fixing member are located on the same side of the cap plate . a cap plate having an electrode lead-out hole ; an electrode terminal composed only of a terminal plate , wherein the terminal plate is located at a side of the cap plate and covers the electrode lead-out hole ; a first fixing member at least partly surrounding the terminal plate to fix the electrode terminal to the first fixing member ; and a second fixing member connected with the cap plate and including a main portion , wherein the second fixing member is separated from the electrode terminal by the first fixing member ; wherein the main portion is provided with an engaging hole and the first fixing member is provided with an inserting portion , and the inserting portion is inserted into the engaging hole , and the terminal plate and the second fixing member are located on the same side of the cap plate .