mhurhangee/ep-ind-claims huggingface dataset:
Casing with at least one casing structuring for stabilizing the flow in the area of the blade tips of the blades in a fluid-flow machine, where the casing structuring is provided at least in one stage on the inner circumference of the casing, where the casing structuring is designed as a duct, which includes a first end and a second end, with the first end issuing into the interior of the casing in the area of the blade tips of a blade ring and with the second end being closed, characterized in that the length l of the duct at the second end is speed-dependably adjustable in a range between a minimum length l min. and a maximum length l max.
A wireless headset, comprising: a body including an earphone coupling portion and a C-shaped neckband configured to be worn around the user's neck; a wireless module provided in the body and configured to wirelessly receive an audio signal from a mobile terminal; a speaker provided in the body; an earphone connected to the body via a cable and configured to be separably coupled to the earphone coupling portion; a coupling sensor provided in the body and configured to sense whether the earphone is coupled to the earphone coupling portion; and a controller configured to: output the audio signal received from the mobile terminal via the speaker and not via the earphone, when the coupling sensor senses the earphone is coupled to the earphone coupling portion, and output the audio signal received from the mobile terminal via the earphone and not via the speaker, when the coupling sensor senses the earphone is separated from the earphone coupling portion. a body including an earphone coupling portion and a C-shaped neckband configured to be worn around the user's neck; a wireless module provided in the body and configured to wirelessly receive an audio signal from a mobile terminal; a speaker provided in the body; an earphone connected to the body via a cable and configured to be separably coupled to the earphone coupling portion; a coupling sensor provided in the body and configured to sense whether the earphone is coupled to the earphone coupling portion; and a controller configured to: output the audio signal received from the mobile terminal via the speaker and not via the earphone, when the coupling sensor senses the earphone is coupled to the earphone coupling portion, and output the audio signal received from the mobile terminal via the earphone and not via the speaker, when the coupling sensor senses the earphone is separated from the earphone coupling portion. output the audio signal received from the mobile terminal via the speaker and not via the earphone, when the coupling sensor senses the earphone is coupled to the earphone coupling portion, and output the audio signal received from the mobile terminal via the earphone and not via the speaker, when the coupling sensor senses the earphone is separated from the earphone coupling portion.
A method of transmitting setting data from a terminal device (1 A) to a plurality of target devices, comprising the steps of: preparing new setting data for the plurality of target devices; transmitting the new setting data to each of the plurality of target devices; obtaining a result of the step of transmitting including error conditions of respective target devices which did not successfully receive the new setting data in the step of transmitting; classifying the error conditions into one of a first group type having a property that a user can solve the error condition and a second group type having a property that the user can not solve the error condition; judging whether retransmission of the new setting data is needed for each of the plurality of target devices based on a result of the step of transmitting, wherein a target device having the error condition of the first group type is judged to need retransmission; and retransmitting the new setting data to at least one target device which is judged to need retransmission. preparing new setting data for the plurality of target devices; transmitting the new setting data to each of the plurality of target devices; obtaining a result of the step of transmitting including error conditions of respective target devices which did not successfully receive the new setting data in the step of transmitting; classifying the error conditions into one of a first group type having a property that a user can solve the error condition and a second group type having a property that the user can not solve the error condition; judging whether retransmission of the new setting data is needed for each of the plurality of target devices based on a result of the step of transmitting, wherein a target device having the error condition of the first group type is judged to need retransmission; and retransmitting the new setting data to at least one target device which is judged to need retransmission.
A method of controlling a heater in an aerosol-generating device, the device comprising: a heater comprising at least one heating element configured to heat an aerosol-forming substrate; and a power source for providing power to the heating element; the method comprising the steps of: controlling power provided to the heating element such that - in a first phase power is provided to increase the temperature of the heating element from an initial temperature to a first temperature, and - in a second phase power is provided to decrease the temperature of the heating element below the first temperature to a second temperature, wherein: - the power provided to the heating element during the first phase is increased at least once during the duration of the first phase; and - aerosol is produced during the second phase. a heater comprising at least one heating element configured to heat an aerosol-forming substrate; and a power source for providing power to the heating element; the method comprising the steps of: controlling power provided to the heating element such that - in a first phase power is provided to increase the temperature of the heating element from an initial temperature to a first temperature, and - in a second phase power is provided to decrease the temperature of the heating element below the first temperature to a second temperature, wherein: - the power provided to the heating element during the first phase is increased at least once during the duration of the first phase; and - aerosol is produced during the second phase. controlling power provided to the heating element such that - in a first phase power is provided to increase the temperature of the heating element from an initial temperature to a first temperature, and - in a second phase power is provided to decrease the temperature of the heating element below the first temperature to a second temperature, - in a first phase power is provided to increase the temperature of the heating element from an initial temperature to a first temperature, and - in a second phase power is provided to decrease the temperature of the heating element below the first temperature to a second temperature, wherein: - the power provided to the heating element during the first phase is increased at least once during the duration of the first phase; and - aerosol is produced during the second phase. - the power provided to the heating element during the first phase is increased at least once during the duration of the first phase; and - aerosol is produced during the second phase.
A rechargeable battery comprising: an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator interposed between the first electrode plate and the second electrode plate; a first current collector plate electrically coupled to the first electrode plate and comprising a fuse; a second current collector plate electrically coupled to the second electrode plate; a case accommodating the electrode assembly, the first current collector plate, and the second current collector plate; a cap assembly sealing the case and comprising a cap plate; a first electrode terminal electrically coupled to the first current collector plate and a second electrode terminal electrically coupled to the second current collector plate, the first electrode terminal and the second electrode terminal passing through the cap plate; and an insulation cover surrounding a region between the cap plate and the electrode assembly, the region comprising the first electrode terminal and the fuse characterized in that the insulation cover has: a first opening formed over the fuse and extending in a first direction from the fuse to the cap plate, a second opening extending in the first direction and spaced from the first opening and configured to allow the first electrode terminal to pass therethrough, and a groove extending in a second direction opposite to the first direction and located under the fuse. an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator interposed between the first electrode plate and the second electrode plate; a first current collector plate electrically coupled to the first electrode plate and comprising a fuse; a second current collector plate electrically coupled to the second electrode plate; a case accommodating the electrode assembly, the first current collector plate, and the second current collector plate; a cap assembly sealing the case and comprising a cap plate; a first electrode terminal electrically coupled to the first current collector plate and a second electrode terminal electrically coupled to the second current collector plate, the first electrode terminal and the second electrode terminal passing through the cap plate; and an insulation cover surrounding a region between the cap plate and the electrode assembly, the region comprising the first electrode terminal and the fuse characterized in that the insulation cover has: a first opening formed over the fuse and extending in a first direction from the fuse to the cap plate, a second opening extending in the first direction and spaced from the first opening and configured to allow the first electrode terminal to pass therethrough, and a groove extending in a second direction opposite to the first direction and located under the fuse. a first opening formed over the fuse and extending in a first direction from the fuse to the cap plate, a second opening extending in the first direction and spaced from the first opening and configured to allow the first electrode terminal to pass therethrough, and a groove extending in a second direction opposite to the first direction and located under the fuse.
An in vitro method for performing a diagnostic assay for the detection of the presence or amount of a microorganism within a sample containing active DNA polymerase by the measurement of DNA polymerase extension activity, which assay comprises the steps of incubating DNA polymerase in the sample with a selected suitable substrate, and performing PCR cycling and detection via the use of a selected suitable nucleic acid probe, thereby to detect endogenous DNA polymerase extension activity in the sample as an indication of the presence or amount of said microorganism, wherein said substrate with which said DNA polymerase is incubated consists of two preannealed oligonucleotides wherein one of said oligonucleotides contains deoxyuridine nucleosides, and prior to said PCR cycling said DNA polymerase extends only the 3' end of the oligonucleotide not containing deoxyuridine nucleosides and subsequently uracil DNA glycosylase is added to degrade the oligonucleotide containing deoxyuridine nucleosides so that only the single stranded product derived from the polymerase-mediated extension proceeds to PCR cycling.
A control device for a transmission that comprises: a lock-up mechanism that is interposed between an engine and the transmission; and an input clutch capable of connecting and disconnecting a torque transmission between the engine and a drive wheel (WL, WR), wherein an amount of vehicle deceleration change, which can be sensed by a driver, is obtained based on vehicle deceleration at a time when the input clutch is not released and a previously set reference value, a target amount of the vehicle deceleration change, which cannot be sensed by the driver, is set based on the amount of the vehicle deceleration change, and an engaging force of the lock-up mechanism and/or the input clutch is controlled to reduce the vehicle deceleration such that the target amount of the vehicle deceleration change is obtained.
Drum brake for a motor vehicle having a rotatably mounted brake drum, having a radially inward-facing friction surface, having brake linings arranged radially inside the friction surface, having an actuator for preloading the brake linings against the friction surface, and having an anchor plate for holding the actuator, having an opening (11, 111, 211) for discharging abraded brake particles from the brake drum, and having a cover for the brake drum, characterized in that the cover delimits a pocket for collecting abraded brake particles.
Stator of a polyphase rotary electric machine, in particular an alternator, having: - a stator body having a plurality of slots, and in particular comprising a lamination stack, - a coil having a plurality of wires that are inserted into the slots in the stator body and define a plurality of phases, the wires forming bundles (30, 31) on either side of the stator body, each bundle (30; 31) having a substantially annular top, the coil having at least one input and one output that are electrically linked to one of the phases of the coil, characterized in that it also has: a guide member (70; 100; 120) of circular shape disposed on one of the bundles, guiding at least one of the wires of the coil, following a portion of the length thereof, along a portion of the circumference of the top of the bundle, and wherein the guide member (70; 100; 120) holds an end portion of this wire, said wire end portion forming one of the input and the output of one of the phases of the coil, the guide member having an upper crown and a lower crown that is connected to the upper crown by a substantially frustoconical wall that diverges in the direction of the bundle of the stator coil. - a stator body having a plurality of slots, and in particular comprising a lamination stack, - a coil having a plurality of wires that are inserted into the slots in the stator body and define a plurality of phases, the wires forming bundles (30, 31) on either side of the stator body, each bundle (30; 31) having a substantially annular top, the coil having at least one input and one output that are electrically linked to one of the phases of the coil,
Controller for a motor vehicle, wherein - the controller comprises at least two processor cores (110, 120, 130) and a global memory, wherein - each processor core (110, 120, 130) comprises a respective local memory and wherein each processor core is set up to access only its own local memory and is set up to access neither the local memories of the other processor cores nor the global memory, wherein the controller comprises a coordination unit, characterized in that the coordination unit is set up - to read in from the global memory of the controller data according to a schedule, available to the coordination unit, on the basis of which the individual processor cores perform particular tasks or execute processes and to write said data to the local memories of the individual processor cores (110, 120, 130), and - to read in from the local memories of the individual processor cores (110, 120, 130) data according to the schedule available to the coordination unit and to write said data to the global memory and/or to the local memory of the other processor cores. - the controller comprises at least two processor cores (110, 120, 130) and a global memory, wherein - each processor core (110, 120, 130) comprises a respective local memory and wherein each processor core is set up to access only its own local memory and is set up to access neither the local memories of the other processor cores nor the global memory, wherein the controller comprises a coordination unit, characterized in that the coordination unit is set up - to read in from the global memory of the controller data according to a schedule, available to the coordination unit, on the basis of which the individual processor cores perform particular tasks or execute processes and to write said data to the local memories of the individual processor cores (110, 120, 130), and - to read in from the local memories of the individual processor cores (110, 120, 130) data according to the schedule available to the coordination unit and to write said data to the global memory and/or to the local memory of the other processor cores.
A method of producing a patterned apertured web, the method comprising: providing a web having a central longitudinal axis, conveying the web in a machine direction that is substantially parallel to the central longitudinal axis, and creating a plurality of overbonds in the web, wherein the plurality of overbonds have a central longitudinal axis that are substantially parallel to the central longitudinal axis of the web; stretching the web in a cross-machine direction that is substantially perpendicular to the machine direction to cause at least some of the overbonds to at least partially rupture and at least partially form patterned apertures in the web; wherein at least some of the patterned apertures have Absolute Feret Angles, according to the Aperture Test herein, of at least 20 degrees; and wherein at least some of the patterned apertures have an Aspect Ratio, according to the Aperture Test herein, in the range of 2: 1 to 6: 1; wherein the patterned apertures comprise a first plurality of patterned apertures and a second plurality of patterned apertures, wherein central longitudinal axes of the first plurality of patterned apertures extend in a first direction relative to the machine direction, and wherein central longitudinal axes of the second plurality of apertures extend in a second, different direction relative to the machine direction, and wherein the second, different direction is at least 10 degrees different than the first direction. providing a web having a central longitudinal axis, conveying the web in a machine direction that is substantially parallel to the central longitudinal axis, and creating a plurality of overbonds in the web, wherein the plurality of overbonds have a central longitudinal axis that are substantially parallel to the central longitudinal axis of the web; stretching the web in a cross-machine direction that is substantially perpendicular to the machine direction to cause at least some of the overbonds to at least partially rupture and at least partially form patterned apertures in the web; wherein at least some of the patterned apertures have Absolute Feret Angles, according to the Aperture Test herein, of at least 20 degrees; and wherein at least some of the patterned apertures have an Aspect Ratio, according to the Aperture Test herein, in the range of 2: 1 to 6: 1; wherein the patterned apertures comprise a first plurality of patterned apertures and a second plurality of patterned apertures, wherein central longitudinal axes of the first plurality of patterned apertures extend in a first direction relative to the machine direction, and wherein central longitudinal axes of the second plurality of apertures extend in a second, different direction relative to the machine direction, and wherein the second, different direction is at least 10 degrees different than the first direction.
A three-dimensional modeling apparatus comprising: a carrier configured to carry a modeling material; a device configured to cause the modeling material carried by the carrier to fly to a surface of an object; and an external force applying member configured to apply a predetermined external force F to the modeling material when the modeling material is flying, characterized in that the carrier is configured to move in a predetermined direction, and the predetermined external force to act in a direction opposite to the predetermined direction. a carrier configured to carry a modeling material; a device configured to cause the modeling material carried by the carrier to fly to a surface of an object; and an external force applying member configured to apply a predetermined external force F to the modeling material when the modeling material is flying, characterized in that the carrier is configured to move in a predetermined direction, and the predetermined external force to act in a direction opposite to the predetermined direction.
A rubber composition for tire tread, the rubber composition comprising: 100 parts by weight of raw rubber; 100 to 150 parts by weight of silica; and 15 to 60 parts by weight of resin having a softening point of 100 to 150 °C, wherein the raw rubber includes a solution-polymerized styrene butadiene rubber comprising 8 to 30 wt% of styrene, having 20 to 35 wt% of vinyl contained in butadiene, and having a molecular weight distribution of 2 to 5, wherein the solution-polymerized styrene butadiene rubber has a glass transition temperature of -70 to -30 °C, and wherein the raw rubber is consisting of the solution--polymerized styrene butadiene rubber, consisting of two kinds of solution-polymerized styrene butadiene rubber with the different vinyl amount. 100 parts by weight of raw rubber; 100 to 150 parts by weight of silica; and 15 to 60 parts by weight of resin having a softening point of 100 to 150 °C, wherein the raw rubber includes a solution-polymerized styrene butadiene rubber comprising 8 to 30 wt% of styrene, having 20 to 35 wt% of vinyl contained in butadiene, and having a molecular weight distribution of 2 to 5,
A mixer circuit (200, 800) with a switching stage (210, 810) comprising a first (214, 814) and a second (213, 813) transistor and with a trans-conductance stage (220, 820) comprising a first (223, 823) and a second (224, 824) transistor, in which mixer circuit the transistors are bipolar junction/FET transistors, and the emitters/sources of the transistors (223, 224; 823, 824) in the trance-conductance stage (220, 820) are coupled to each other as well as being coupled to ground via a DC current source (I e), with the bases/gates of the transistors (223, 224; 823, 824) in the trance-conductance stage (220, 820) forming respective differential input ports (221, 222; 821, 822) for a first input signal (RF+/-) at a first frequency, and the collector/drain of the first transistor in the trans-conductance stage is connected to the emitter/source of the first transistor in the switching stage and the collector/drain of the second transistor in the trans-conductance stage is connected to the emitter/source of the second transistor in the switching stage with the emitter/source of each of the transistors (213, 214; 813, 814) in the switching stage forming respective differential input ports (215, 216; 815, 816) for a second input signal (LO+/-) at a second frequency, the mixer circuit being characterized in that the transistors (213, 214; 813, 814) in the switching stage (210, 810) are capacitively cross-coupled to each other by means of the base/gate of each transistor in the switching stage being coupled to the emitter/source of the other transistor in the switching stage via a capacitor (205, 206; 805, 806), with the collectors/drains of the transistors (213, 214; 813, 814) in the switching stage (210, 810) also being connected to each other and forming an output port (V IF) for a mixer signal from the mixer circuit as well as forming an input port for a DC supply voltage (V CC) for the mixer circuit via a resistor (R C).