mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a server system associated with a media-providing service, the server system having one or more processors and memory storing instructions for execution by the one or more processors, the method comprising: receiving, from a first electronic device, an indication that the first electronic device has shared a first listening session playing back media on a second electronic device; in response to the receiving of the indication, establishing the first listening session and creating a session identifier associated with the first listening session; receiving, from a third electronic device, a first request for one or more shared listening sessions playing back on the second electronic device wherein the first request includes an identifier of the second electronic device; in response to the first request, transmitting, to the third electronic device, the session identifier for the first listening session; receiving, from the third electronic device, a second request to join the first listening session using the session identifier for the first listening session; providing, to the third electronic device, access to the first listening session playing back on the second electronic device; and providing to the first and third electronic devices, a common set of controls for controlling media-playback of the first listening session at the second electronic device. receiving, from a first electronic device, an indication that the first electronic device has shared a first listening session playing back media on a second electronic device; in response to the receiving of the indication, establishing the first listening session and creating a session identifier associated with the first listening session; receiving, from a third electronic device, a first request for one or more shared listening sessions playing back on the second electronic device wherein the first request includes an identifier of the second electronic device; in response to the first request, transmitting, to the third electronic device, the session identifier for the first listening session; receiving, from the third electronic device, a second request to join the first listening session using the session identifier for the first listening session; providing, to the third electronic device, access to the first listening session playing back on the second electronic device; and providing to the first and third electronic devices, a common set of controls for controlling media-playback of the first listening session at the second electronic device.
A gas separation membrane, which comprises a porous support membrane comprising microfibrils having a network structure and a gas-separating thin film, wherein the porous support membrane is a polymeric microporous membrane and has a porosity of 20 % to 80 % and an average pore diameter of 1 to 200 nm and is formed using a polyolefin as the main component, and the pore diameter distribution index DI P, the ratio D X /D A between the maximum pore diameter D X and the average pore diameter D A, of the porous support membrane is 1.1 to 1.5 as measured by a pullulan method, wherein the gas separating thin film has an average thickness of 0.01 μm to 5 μm at least on one surface, and/or the interior of the polymeric microporous membrane and comprises a gas-separating resin as a main component, which gas separating resin has an oxygen permeation rate of not smaller than 100 GPU and an oxygen-nitrogen separation factor of not smaller than 1.5.
A method comprising: measuring a concentration of oleanane, C 29 30-nor-neohopane (H29Ts), bicadinanes and methyl-bicadinanes, and C 27 22,29,30-tris-nor-neohopane (Ts) in a hydrocarbon sample; calculating an angiosperm index-1 = /( + [H29Ts]) and an angiosperm index-2 = + /( + +[Ts]); and estimating an age of the hydrocarbon sample based on a relationship between the angiosperm index-1 and the angiosperm index-2 as a function of age for a set of calibration samples. measuring a concentration of oleanane, C 29 30-nor-neohopane (H29Ts), bicadinanes and methyl-bicadinanes, and C 27 22,29,30-tris-nor-neohopane (Ts) in a hydrocarbon sample; calculating an angiosperm index-1 = /( + [H29Ts]) and an angiosperm index-2 = + /( + +[Ts]); and estimating an age of the hydrocarbon sample based on a relationship between the angiosperm index-1 and the angiosperm index-2 as a function of age for a set of calibration samples.
A tire comprising a tread, a crown reinforcement, a carcass reinforcement with at least one ply wound about a pair of bead cores and through two sidewalls (98, 99) of the tire, wherein the tire further comprises a sidewall layer as a reinforcement structure (101, 102) disposed adjacent a part of the carcass reinforcement within at least one of the sidewalls (98, 99), the sidewall layer comprising a plurality of cords, each cord including: (i) one nylon cord having an S twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a Z twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an S twist having from 3 to 7 twists per 2.54 cm; or (ii) one nylon cord having an Z twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a S twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an Z twist having from 3 to 7 twists per 2.54 cm; and wherein the twists per 2.54 cm of the nylon cord and the twists per 2.54 cm of the aramid cord are lower than the twists per 2.54 cm the nylon cord and the aramid cord are twisted together. (i) one nylon cord having an S twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a Z twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an S twist having from 3 to 7 twists per 2.54 cm; or (ii) one nylon cord having an Z twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a S twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an Z twist having from 3 to 7 twists per 2.54 cm;
A data transfer method in a pedalling sensor, comprising: receiving pre-processed measurement data in a processing circuitry of the pedalling sensor from a measurement circuitry of the pedalling sensor; receiving a radio signal including a configuration data frame, the configuration data frame comprising configuration information applied when processing pedalling data; acquiring the pedalling data in the processing circuitry from the pre-processed measurement data by applying the configuration information, wherein the pedalling data characterizes pedalling quantity measured from a force transmission system of a bicycle; forming in the processing circuitry a transmission data frame comprising a first information element including at least a portion of the pedalling data; and outputting in the processing circuitry the transmission data frame for wireless transmission. receiving pre-processed measurement data in a processing circuitry of the pedalling sensor from a measurement circuitry of the pedalling sensor; receiving a radio signal including a configuration data frame, the configuration data frame comprising configuration information applied when processing pedalling data; acquiring the pedalling data in the processing circuitry from the pre-processed measurement data by applying the configuration information, wherein the pedalling data characterizes pedalling quantity measured from a force transmission system of a bicycle; forming in the processing circuitry a transmission data frame comprising a first information element including at least a portion of the pedalling data; and outputting in the processing circuitry the transmission data frame for wireless transmission.
An electric power assisted steering system comprising a steering mechanism which operatively connects a steering wheel to the road wheels of the vehicle, a torque sensing means adapted to produce a first output signal indicative of the torque carried by a portion of the steering mechanism, a velocity sensing means for producing a second output signal (ω) indicative of the angular velocity of the steering wheel, an electric motor operatively connected to the steering mechanism, a signal processing unit adapted to receive the first and second signals and to produce a torque demand signal representative of a torque to be applied to the steering mechanism by the motor, and a motor drive stage adapted to provide a drive current to the motor responsive to the torque demand signal, the signal processing unit being adapted to generate a torque demand signal that comprises a steering assistance component which is dependent upon the first signal and comprises a damping component that varies as a function of the values of the first output signal and the second output signal (ω), and characterised in that the steering system further comprises a difference means for determining the difference in value of the torque carried by a portion of the column between two points in time to produce a third output signal and in that the torque demand signal generated by the processing unit is additionally dependent upon the third output signal dT, and in which the signal processing unit generates the damping component by generating a first intermediate value which is a function of the second output signal (w), a second intermediate value by producing a scaling value that is a function of the first output signal, and a third intermediate value by producing a scaling value that is a function of the third output signal (dT), and multiplying the first intermediate value with the second intermediate value and the third intermediate.
An alginate oligomer for use in the treatment or prevention of small intestinal bacterial overgrowth in a subject with reduced intestinal motility or reduced pancreatic and bile secretions.
A cyclonic separation apparatus (8,208) for a vacuum cleaner (2,202,602,702,802), the cyclonic separation apparatus comprising: a first cyclonic separating unit (160,360) comprising a hollow substantially cylindrical dirt container (120,130, 320,330) with a longitudinal central axis (21,321) and an air inlet port (126,326) arranged tangentially through a side of the dirt container; a second cyclonic separating unit (150,350) comprising at least one cyclone (84,284) with an air inlet port (88,288), an axial outlet port (56,256) and a discharge nozzle (87,287); a substantially cylindrical intermediate wall (82,90,110,282,290,310) arranged within the dirt container, wherein the intermediate wall surrounds the inlet port (88,288) of the at least one cyclone (84,284), wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end (130,330) of the dirt container, and wherein the cyclonic separation apparatus comprises at least a first protruding lip (104,304) arranged to impede return of separated material from said longitudinal end of the dirt container and wherein first lip protrudes radially outwardly from the intermediate wall. a first cyclonic separating unit (160,360) comprising a hollow substantially cylindrical dirt container (120,130, 320,330) with a longitudinal central axis (21,321) and an air inlet port (126,326) arranged tangentially through a side of the dirt container; a second cyclonic separating unit (150,350) comprising at least one cyclone (84,284) with an air inlet port (88,288), an axial outlet port (56,256) and a discharge nozzle (87,287); a substantially cylindrical intermediate wall (82,90,110,282,290,310) arranged within the dirt container, wherein the intermediate wall surrounds the inlet port (88,288) of the at least one cyclone (84,284), wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end (130,330) of the dirt container, and wherein the cyclonic separation apparatus comprises at least a first protruding lip (104,304) arranged to impede return of separated material from said longitudinal end of the dirt container and wherein first lip protrudes radially outwardly from the intermediate wall.
A hydraulic fan control consisting of at least - a fan motor, - a pressure supply device, in particular a hydraulic pump, for supplying the fan motor with a pressurising medium, in particular in the form of hydraulic oil, and - a thermo valve (50, 54) controlling the regulation of the rotational speed of the fan motor, the thermo valve (40, 54) having an energy accumulator in the form of a compression spring (48, 60), characterised in that the compression spring (48, 60) is made of a shape memory alloy which has a temperature-dependent force/lift characteristic curve. - a fan motor, - a pressure supply device, in particular a hydraulic pump, for supplying the fan motor with a pressurising medium, in particular in the form of hydraulic oil, and - a thermo valve (50, 54) controlling the regulation of the rotational speed of the fan motor,
A resource allocation method, wherein the method comprises: establishing, by a master control device, a first asynchronous connection link with a first slave device; establishing, by the master control device, a first synchronous connection link with the first slave device based on the first asynchronous connection link; and dynamically allocating, by the master control device, a first air interface resource to the first asynchronous connection link based on indication information in a data packet transmitted on the first synchronous connection link, wherein the indication information indicates whether control signaling transmission needs to be performed on the first asynchronous connection link. establishing, by a master control device, a first asynchronous connection link with a first slave device; establishing, by the master control device, a first synchronous connection link with the first slave device based on the first asynchronous connection link; and dynamically allocating, by the master control device, a first air interface resource to the first asynchronous connection link based on indication information in a data packet transmitted on the first synchronous connection link, wherein the indication information indicates whether control signaling transmission needs to be performed on the first asynchronous connection link.
Method for operating an inductive element, in particular an electromagnetic actuator, wherein a capacitor is provided, and wherein a first series circuit composed of the inductive element and a switching device is connected in parallel with the capacitor, wherein the switching device is transferred to an electrically conducting state at a first time at which a voltage (Uc) of the capacitor has a first capacitor voltage value (Uc_1) corresponding to a first polarity, wherein the switching device is transferred from the electrically conducting state to an electrically non-conducting state at a second time, characterized in that the second time is selected so that the capacitor voltage (Uc) changes its polarity at least n times, wherein n > 1, in a time interval located between the first and the second time.
Sidewall suitable for a gangway, the sidewall having • a first gangway end and • a second gangway end, said second gangway end being opposite the first gangway end and characterized by • a retractable rail that has a first rail end that is connected to the first gangway end and that has a second rail end opposite the first rail end, whereby the second rail end is connected to the second gangway end, whereby the retractable rail extends along a longitudinal axis and • a cover attached to the rail and extending along the rail, whereby the cover has a flexible portion that extends from the rail into a direction perpendicular to the longitudinal axis. • a first gangway end and • a second gangway end, said second gangway end being opposite the first gangway end and • a retractable rail that has a first rail end that is connected to the first gangway end and that has a second rail end opposite the first rail end, whereby the second rail end is connected to the second gangway end, whereby the retractable rail extends along a longitudinal axis and • a cover attached to the rail and extending along the rail, whereby the cover has a flexible portion that extends from the rail into a direction perpendicular to the longitudinal axis.
Method for operating a cooking appliance with a hob, which has at least one cooking zone which can be activated by a user and at least one display facility and which is designed both to determine a running operating time of at least one from a start-up of this at least one cooking zone and to display said operating time in the display facility and also to provide at least one countdown timer function, upon the activation of which the remaining running time is displayed in the display facility based on a prespecified timer duration, wherein the start-up of this at least one cooking zone by a user comprises the switching on of this cooking zone and characterised in that the running operating time of the at least one cooking zone - is determined from the switching on by the user of this at least one cooking zone until it is switched and - is automatically displayed upon switching on and in which the running operating time is added to an elapsed operating time of a previous operating phase of this cooking zone if a deactivation time period between a current operating phase and the previous operating phase falls below or does not exceed a prespecified duration. - is determined from the switching on by the user of this at least one cooking zone until it is switched and - is automatically displayed upon switching on
A Frequency-Modulated-Continuous-Wave, FMCW, radar device (2, 8, 20) comprising: one or more antennas (26, 28) configured to receive an FMCW radar signal (18, 22, 42) that includes a phase encoded data channel, wherein the phase encoded data channel carries information comprising timing information; a mixer configured to receive the signal with the phase encoded data channel from the one or more antennas and generate a difference signal with an FMCW radar signal transmitted by the device; an analog-to-digital converter, ADC, configured to convert the difference signal of the mixer to a digital difference signal; a clock configured to drive a signal processing unit; one or more processors of a signal processing unit configured to process the digital difference signal to recover the timing information, wherein the timing information comprises at least one of a time stamp or time of arrival information; and a memory, wherein the memory is configured to store the timing information. one or more antennas (26, 28) configured to receive an FMCW radar signal (18, 22, 42) that includes a phase encoded data channel, wherein the phase encoded data channel carries information comprising timing information; a mixer configured to receive the signal with the phase encoded data channel from the one or more antennas and generate a difference signal with an FMCW radar signal transmitted by the device; an analog-to-digital converter, ADC, configured to convert the difference signal of the mixer to a digital difference signal; a clock configured to drive a signal processing unit; one or more processors of a signal processing unit configured to process the digital difference signal to recover the timing information, wherein the timing information comprises at least one of a time stamp or time of arrival information; and a memory, wherein the memory is configured to store the timing information.
Peripheral device for a computer, wherein the peripheral device comprises an audio interface for transmitting data to the computer via an audio frequency signal, wherein the peripheral device is a card reader for reading value and security documents, characterized in that the audio interface implements a modem standard.
A genetic construct with a structure of the following formula: 5 ' − A + B + C + D + E − 3 ', wherein, A represents a promoter; B represents a coding sequence for a fusion protein consisting of a target protein and a first marker protein; C represents a coding sequence for a linker peptide; D represents a coding sequence for a second marker protein; and E represents a terminator; wherein B and D can be interchanged; B, from 5' to 3', comprises a coding sequence for the target protein and a coding sequence for the first marker protein; the coding sequence of the target protein is any gene selected from human genomic library human ORFeome V5.1; the linker peptide is ubiquitin, or ubiquitin with K saturation mutation; the first marker protein and the second marker protein are fluorescent proteins; and wherein the target protein, first marker protein, linker peptide and second marker protein are co-expressed under the same promoter; and and wherein the genetic construct encodes a polypeptide comprising successively the target protein, the first marker protein, linker peptide and the second marker protein, or the second marker protein, the linker peptide, the target protein and the first marker protein. A represents a promoter; B represents a coding sequence for a fusion protein consisting of a target protein and a first marker protein; C represents a coding sequence for a linker peptide; D represents a coding sequence for a second marker protein; and E represents a terminator; wherein B and D can be interchanged; B, from 5' to 3', comprises a coding sequence for the target protein and a coding sequence for the first marker protein; the coding sequence of the target protein is any gene selected from human genomic library human ORFeome V5.1; the linker peptide is ubiquitin, or ubiquitin with K saturation mutation; the first marker protein and the second marker protein are fluorescent proteins; and wherein the target protein, first marker protein, linker peptide and second marker protein are co-expressed under the same promoter; and and wherein the genetic construct encodes a polypeptide comprising successively the target protein, the first marker protein, linker peptide and the second marker protein, or the second marker protein, the linker peptide, the target protein and the first marker protein.