mhurhangee/ep-ind-claims huggingface dataset:
Dishwasher, especially household dishwasher, with a control device for carrying out a washing cycle for cleaning items to be washed, with a washing compartment for accommodating the items to be washed during the washing cycle, with an inlet valve able to be opened and closed by the control device for filling the washing compartment with washing liquor, with a recirculation pump, comprising an electric motor, for recirculating washing liquor present in the washing compartment, of which the speed is able to be varied by the control device, and with a true running monitoring unit, embodied to monitor fluctuations of at least one electric operating parameter of the electric motor, for carrying out a true running check on the recirculation pump, wherein the wash cycle comprises at least one fill sequence, in which, during a fill phase, the recirculation pump is switched on, with an algorithm for varying the speed of the recirculation pump being provided for the fill phase, with the algorithm comprising a variation step for stepped variation of the speed by a default value and a test step for carrying out a true running check, wherein the test step determines whether or not the recirculation pump is running true in the case of the speed which results in the previously implemented variation step, wherein the recirculation pump is running true if sufficient washing liquor is available in the washing compartment to prevent air from being drawn out by means of the recirculation pump, characterised in that during the fill phase the inlet valve is opened and the recirculation pump is switched on and that for the fill phase the algorithm further comprises a modification step for modifying the default value for a renewed execution of the variation step as a function of a result of the test step, wherein the default value is greater than or equal to zero if the result of the test step is that the recirculation pump is not running true and wherein the default value is less than zero if the result of the test step is that the recirculation pump is not running true.
A method for determining an inter-channel time difference of a multi-channel audio signal having at least two channels, wherein said method comprises the steps of: - determining a set of local maxima of a cross-correlation function involving at least two different channels of the multi-channel audio signal for positive and negative time-lags, where each local maximum is associated with a corresponding time-lag; - selecting, from the set of local maxima, a local maximum for positive time-lags as a so-called positive time-lag inter-channel correlation candidate and a local maximum for negative time-lags is selected as a so-called negative time-lag inter-channel correlation candidate; - evaluating, when the absolute value of a difference in amplitude between the inter-channel correlation candidates is smaller than a first threshold, whether there is an energy-dominant channel; - identifying, when there is an energy-dominant channel, the sign of the inter-channel time difference and extracting a current value of the inter-channel time difference based on either the time-lag corresponding to the positive time-lag inter-channel correlation candidate or the time-lag corresponding to the negative time-lag inter-channel correlation candidate. - determining a set of local maxima of a cross-correlation function involving at least two different channels of the multi-channel audio signal for positive and negative time-lags, where each local maximum is associated with a corresponding time-lag; - selecting, from the set of local maxima, a local maximum for positive time-lags as a so-called positive time-lag inter-channel correlation candidate and a local maximum for negative time-lags is selected as a so-called negative time-lag inter-channel correlation candidate; - evaluating, when the absolute value of a difference in amplitude between the inter-channel correlation candidates is smaller than a first threshold, whether there is an energy-dominant channel; - identifying, when there is an energy-dominant channel, the sign of the inter-channel time difference and extracting a current value of the inter-channel time difference based on either the time-lag corresponding to the positive time-lag inter-channel correlation candidate or the time-lag corresponding to the negative time-lag inter-channel correlation candidate.
Packaging unit comprising: at least one first identification code mark, which is arranged in exposed fashion on the packaging unit, and at least one second identification code mark, which is arranged in concealed fashion on the packaging unit, wherein a first data record associated with the at least first identification code mark and a second data record associated with the at least second identification code mark are retrievably recorded in at least one central database, and wherein the second data record is uniquely associated in each case with the respective first data record, wherein the at least first identification code mark and the at least second identification code mark are arranged one on top of the other on the packaging unit, characterized in that the second identification code mark arranged beneath the first is accessible by destroying the first identification code mark. at least one first identification code mark, which is arranged in exposed fashion on the packaging unit, and at least one second identification code mark, which is arranged in concealed fashion on the packaging unit, wherein a first data record associated with the at least first identification code mark and a second data record associated with the at least second identification code mark are retrievably recorded in at least one central database, and wherein the second data record is uniquely associated in each case with the respective first data record, wherein the at least first identification code mark and the at least second identification code mark are arranged one on top of the other on the packaging unit, characterized in that the second identification code mark arranged beneath the first is accessible by destroying the first identification code mark.
Method for processing voice messages by means of a terminal, characterized in that said method comprises steps of: -- sending (E110, E112) a voice server (SRV1, SRV2) a request which has to be interpreted by said server in order to deactivate DTMF coding on a communication channel between said server and said terminal; -- receiving (E120, E120', E234) a configuration datum (iConf1, iConf2, iConf3) for said terminal from said server; -- interpreting (E122, E236) said configuration datum and applying a configuration mode obtained on the basis of said interpretation to said terminal; and -- processing (E132, E238) said voice messages (MVoc2) by means of said terminal according to said configuration mode. -- sending (E110, E112) a voice server (SRV1, SRV2) a request which has to be interpreted by said server in order to deactivate DTMF coding on a communication channel between said server and said terminal; -- receiving (E120, E120', E234) a configuration datum (iConf1, iConf2, iConf3) for said terminal from said server; -- interpreting (E122, E236) said configuration datum and applying a configuration mode obtained on the basis of said interpretation to said terminal; and -- processing (E132, E238) said voice messages (MVoc2) by means of said terminal according to said configuration mode.
A communication method, comprising: receiving radio resource control, RRC, signaling, wherein the RRC signaling indicates candidate spatial information of a physical downlink shared channel, PDSCH; and receiving medium access control control element, MAC-CE, signaling, wherein the MAC-CE signaling indicating one or more pieces of spatial information in the candidate spatial information of the PDSCH, to indicate spatial information of a first control resource set, wherein the candidate spatial information of the PDSCH is reused as candidate spatial information of the first control resource set, and the first control resource set is a control resource set whose identifier is 0; wherein, the first control resource set is a control resource set used at least for scheduling system information, and the spatial information is quasi-co-location, QCL, information. receiving radio resource control, RRC, signaling, wherein the RRC signaling indicates candidate spatial information of a physical downlink shared channel, PDSCH; and receiving medium access control control element, MAC-CE, signaling, wherein the MAC-CE signaling indicating one or more pieces of spatial information in the candidate spatial information of the PDSCH, to indicate spatial information of a first control resource set, wherein the candidate spatial information of the PDSCH is reused as candidate spatial information of the first control resource set, and the first control resource set is a control resource set whose identifier is 0; wherein, the first control resource set is a control resource set used at least for scheduling system information, and the spatial information is quasi-co-location, QCL, information.
A surgical device comprising: a first cable portion engaging a first component such that a first coefficient of friction exists between the first cable portion and the first component; and a second cable portion (104,202) having a first end operatively coupled to a first end of the first cable portion, the second cable portion (104,202) including a covering material, the covering material engaging a second component such that a second coefficient of friction exists between the covering material of the second cable portion (104,202) and the second component, characterised in that the second coefficient of friction is greater than the first coefficient of friction. a first cable portion engaging a first component such that a first coefficient of friction exists between the first cable portion and the first component; and a second cable portion (104,202) having a first end operatively coupled to a first end of the first cable portion, the second cable portion (104,202) including a covering material, the covering material engaging a second component such that a second coefficient of friction exists between the covering material of the second cable portion (104,202) and the second component, characterised in that the second coefficient of friction is greater than the first coefficient of friction.
A multilayer film, comprising: a. first and second outer layers comprising 80 to 100 wt% of a first ethylene-based polymer; and b. an inner layer interposing the first and second outer layers, the inner layer comprising 5.0 to 30.0 wt% of a first propylene-based elastomer and 70.0 to 95.0 wt% a second ethylene-based polymer, said second ethylene-based polymer having a Composition Distribution Breadth Index (CDBI) of at least 70% and a g' vis of 0.85 to 0.98; wherein the film has a MD 1% Secant Modulus of ≥ 137 MPa. a. first and second outer layers comprising 80 to 100 wt% of a first ethylene-based polymer; and b. an inner layer interposing the first and second outer layers, the inner layer comprising 5.0 to 30.0 wt% of a first propylene-based elastomer and 70.0 to 95.0 wt% a second ethylene-based polymer, said second ethylene-based polymer having a Composition Distribution Breadth Index (CDBI) of at least 70% and a g' vis of 0.85 to 0.98;
Implant system comprising at least two differing color-coded implants (16, 18) and characterized by at least two differing color-coded medical instruments (12, 14), wherein a color coding of the at least two instruments (12, 14) corresponds to a color coding of the at least two implants (16, 18), wherein the coding of the at least two medical instruments (12, 14) comprises at least one coding element (32, 34), wherein the at least two medical instruments (12, 14) each comprise a first tool element and at least one second tool element for jointly handling one of the at least two implants (16, 18), wherein the first tool element and the at least one second tool element are movable relative to one another and are arranged or formed on a distal end of the respective instrument (12, 14), wherein the at least two instruments (12, 14) each comprise an actuating device, which is arranged or formed on a proximal end of the instrument (12, 14) and cooperating with the at least two tool elements (42, 44) for moving the first tool element and the at least one second tool element relative to one another as a result of an actuation of the actuating device, wherein the at least one coding element is arranged on the first tool element and the at least one second tool element secures the at least one coding element in a working position of the respective instrument (12, 14), in which the first tool element and the at least one second tool element are movable relative to one another between a first extreme position and a second extreme position, on the first tool element against a movement in the direction toward the second tool element.
A dual frequency transducer comprising: a high frequency transducer comprising a sheet of PZT material including a number of high frequency transducer elements, one or more matching layers, a lens positioned in front of the high frequency transducer elements and a support frame on a back side of the PZT material that supports one or more flex circuits with signal traces that connect to the high frequency transducer elements; an intermediate layer that is configured to absorb high frequency ultrasound signals and positioned behind the high frequency transducer elements; and a low frequency transducer; characterised in that the dual frequency transducer comprises one or more fiducials (120a, 120b) placed at known positions with respect to the high frequency transducer elements; and the low frequency transducer includes a sheet of PZT material including a number of low frequency transducer elements, one or more matching layers and a flex circuit with signal traces that connect to the low frequency transducer elements, wherein the low frequency transducer includes one or more alignment tabs (162a, 162b) with an alignment feature that aligns the low frequency transducer with one of the one or more fiducials (120a, 120b). a high frequency transducer comprising a sheet of PZT material including a number of high frequency transducer elements, one or more matching layers, a lens positioned in front of the high frequency transducer elements and a support frame on a back side of the PZT material that supports one or more flex circuits with signal traces that connect to the high frequency transducer elements; an intermediate layer that is configured to absorb high frequency ultrasound signals and positioned behind the high frequency transducer elements; and a low frequency transducer; characterised in that the dual frequency transducer comprises one or more fiducials (120a, 120b) placed at known positions with respect to the high frequency transducer elements; and the low frequency transducer includes a sheet of PZT material including a number of low frequency transducer elements, one or more matching layers and a flex circuit with signal traces that connect to the low frequency transducer elements, wherein the low frequency transducer includes one or more alignment tabs (162a, 162b) with an alignment feature that aligns the low frequency transducer with one of the one or more fiducials (120a, 120b).
A method of sample analysis comprising: irradiating a sample with electromagnetic radiation collecting electromagnetic radiation absorption data from a plurality of translationally scanned object positions; collecting electromagnetic radiation scattering data; and combining said absorption and scattering data, characterised in that the electromagnetic radiation comprises at least one tubular beam.
A method of controlling operation of a starter configured for starting a heat engine, including: - a step of determining a first temperature value (T 1) at a point of the starter; - a step of determining thermal coefficients corresponding to the first temperature value ( T 1) of a pre-established thermal model describing the development over time of the temperature at said point of the starter T ( t)= Ae Bt + C, T ( t) designating the temperature at said point of the starter at the instant t, A, B and C designating said thermal coefficients at the temperature T ( t), using prerecorded thermal models and/or measurement tables determined from physical measurements, including the values of these coefficients for different temperature values; - a step of calculating the time remaining for the temperature at said point of the starter to reach a second temperature value ( T 2) from the first temperature value ( T 1), the second temperature value ( T 2) being greater than the first temperature value ( T 1) on the basis of the pre-established thermal model with the determined thermal coefficients, - a step of inhibiting the starter, at least for a predefined period of time, when said remaining time is less than a predetermined period of time. - a step of determining a first temperature value (T 1) at a point of the starter; - a step of determining thermal coefficients corresponding to the first temperature value ( T 1) of a pre-established thermal model describing the development over time of the temperature at said point of the starter T ( t)= Ae Bt + C, T ( t) designating the temperature at said point of the starter at the instant t, A, B and C designating said thermal coefficients at the temperature T ( t), using prerecorded thermal models and/or measurement tables determined from physical measurements, including the values of these coefficients for different temperature values; - a step of calculating the time remaining for the temperature at said point of the starter to reach a second temperature value ( T 2) from the first temperature value ( T 1), the second temperature value ( T 2) being greater than the first temperature value ( T 1) on the basis of the pre-established thermal model with the determined thermal coefficients, - a step of inhibiting the starter, at least for a predefined period of time, when said remaining time is less than a predetermined period of time.
An environmental conditioning assembly for use in mechanical testing at scales of microns or less, the environmental conditioning assembly comprising: an enclosure housing including an environmental cavity the enclosure housing includes a testing instrument access port extending through the enclosure housing into the environmental cavity, an access port perimeter of the testing instrument access port extends around a testing instrument positionable within the testing instrument access port with an actuation gap therebetween; a sample stage within the environmental cavity, the sample stage including a stage surface configured to support a sample thereon, and a cavity perimeter of the enclosure housing is clustered around the sample stage; and a sample heating or cooling system configured to heat or cool the sample on the stage surface within the enclosure housing. an enclosure housing including an environmental cavity the enclosure housing includes a testing instrument access port extending through the enclosure housing into the environmental cavity, an access port perimeter of the testing instrument access port extends around a testing instrument positionable within the testing instrument access port with an actuation gap therebetween; a sample stage within the environmental cavity, the sample stage including a stage surface configured to support a sample thereon, and a cavity perimeter of the enclosure housing is clustered around the sample stage; and a sample heating or cooling system configured to heat or cool the sample on the stage surface within the enclosure housing.
Method for detecting an imminent pole slip of a synchronous generator electrically connected to a power grid, wherein a signal characteristic of a grid fault is detected, and an impending pole slip is ascertained when a load angle of the synchronous generator increases above a predefinable value, characterized by the following steps: - determining a first load angle (θ OP) during operation without a grid disturbance, - determining a generator frequency (f G) as a function of the time when a grid disturbance occurs, and - precalculating a second load angle (θ fail) resulting from the grid disturbance by adding the value of the first load angle (θ OP) to a load angle difference (Δθ) occurring during the grid disturbance, which load angle difference (Δθ) is caused by a deviation of a generator frequency (f G) relative to a grid frequency (f grid) and is formed from the integral of the generator frequency (f G) from a rotational speed measurement of the synchronous generator. - determining a first load angle (θ OP) during operation without a grid disturbance, - determining a generator frequency (f G) as a function of the time when a grid disturbance occurs, and - precalculating a second load angle (θ fail) resulting from the grid disturbance by adding the value of the first load angle (θ OP) to a load angle difference (Δθ) occurring during the grid disturbance, which load angle difference (Δθ) is caused by a deviation of a generator frequency (f G) relative to a grid frequency (f grid) and is formed from the integral of the generator frequency (f G) from a rotational speed measurement of the synchronous generator.
A rolling bearing, wherein the rolling elements are loaded, equipped with a cage separating the rolling elements, wherein at least one groove is situated on the bearing race on which the rolling elements travel, such that - edges of the groove are positioned at an angle α from 4.5° to 80° in relation to the movement direction of the rolling elements, and - in the cage, holes for the rolling elements are made askew so that the angle β - between a straight line connecting the cage centre 01 with the centre O2 of the rolling element and - a radially extending tangent to the rolling element at the contact point of this element, when the rolling bearing is in use, with one of the walls of the hole of the cage which delimits the length of the hole in the circumferential direction has a value β > arctg μ, where μ is the sliding friction coefficient of mating of the rolling element material with the cage material. - edges of the groove are positioned at an angle α from 4.5° to 80° in relation to the movement direction of the rolling elements, and - in the cage, holes for the rolling elements are made askew so that the angle β - between a straight line connecting the cage centre 01 with the centre O2 of the rolling element and - a radially extending tangent to the rolling element at the contact point of this element, when the rolling bearing is in use, with one of the walls of the hole of the cage which delimits the length of the hole in the circumferential direction has a value β > arctg μ, where μ is the sliding friction coefficient of mating of the rolling element material with the cage material.