mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring a large shaft rotation angle, the method comprising: A) providing a mechanical cam mechanism having one or more shape features defining harmonics; B) rotating the mechanical cam mechanism along an axis of rotation; C) determining, with a plurality of position sensors (106a, 106b, 108a, 108b), a differential position measurement at a particular sense angle defined by positions of the plurality of sensors, relative to the axis of rotation; and D) analyzing, with a processor, each of the differential position measurements to determine a large shaft rotation angle; wherein the cam mechanism comprises two or more cams (504, 554), sharing a common axis of rotation; wherein each of the two or more cams have harmonics of mutually exclusive orders; wherein each of the two or more cams has a single harmonic; wherein the particular orders of each of the harmonics are relatively prime; and wherein the particular orders of each of the harmonics are odd. A) providing a mechanical cam mechanism having one or more shape features defining harmonics; B) rotating the mechanical cam mechanism along an axis of rotation; C) determining, with a plurality of position sensors (106a, 106b, 108a, 108b), a differential position measurement at a particular sense angle defined by positions of the plurality of sensors, relative to the axis of rotation; and D) analyzing, with a processor, each of the differential position measurements to determine a large shaft rotation angle; wherein the cam mechanism comprises two or more cams (504, 554), sharing a common axis of rotation; wherein each of the two or more cams have harmonics of mutually exclusive orders; wherein each of the two or more cams has a single harmonic; wherein the particular orders of each of the harmonics are relatively prime; and wherein the particular orders of each of the harmonics are odd. wherein the cam mechanism comprises two or more cams (504, 554), sharing a common axis of rotation; wherein each of the two or more cams have harmonics of mutually exclusive orders; wherein each of the two or more cams has a single harmonic; wherein the particular orders of each of the harmonics are relatively prime; and wherein the particular orders of each of the harmonics are odd.
A method, comprising the following steps, in particular in this order, b) wirelessly providing at least one first and/or second product-related datum, in particular including a current product price, in particular by a server, c) receiving and storing the at least one first and/or second product-related datum by an autonomous electronic price label, wherein said autonomous electronic price label has a first data transmission device for receiving the at least one first and/or second product-related datum and at least one storage unit for storing the at least one first and/or second product-related datum, d) displaying the at least one first and/or second product-related datum by the autonomous electronic price label, wherein the autonomous electronic price label has a display for displaying the at least one product-related datum and at least one energy store which supplies the display with energy, g) sending the at least one first and/or second product-related datum to a mobile terminal device, in particular a smartphone, wherein the autonomous electronic price label has a second data transmission device for sending said at least one first and/or second product-related datum, characterised in that the autonomous electronic price label comprises a first position detecting device, by means of which the first actual position of the autonomous electronic price label is ascertainable. wherein the at least one storage unit comprises a nominal position of the autonomous electronic price label, wherein the autonomous electronic price label emits a signal via the first and/or second data transmission unit if the autonomous electronic price label, in particular a data processing device of the autonomous electronic price label, ascertains via the first position detecting device that the first actual position does not correspond to the nominal position, wherein the first position detecting device is a GPS module. b) wirelessly providing at least one first and/or second product-related datum, in particular including a current product price, in particular by a server, c) receiving and storing the at least one first and/or second product-related datum by an autonomous electronic price label, wherein said autonomous electronic price label has a first data transmission device for receiving the at least one first and/or second product-related datum and at least one storage unit for storing the at least one first and/or second product-related datum, d) displaying the at least one first and/or second product-related datum by the autonomous electronic price label, wherein the autonomous electronic price label has a display for displaying the at least one product-related datum and at least one energy store which supplies the display with energy, g) sending the at least one first and/or second product-related datum to a mobile terminal device, in particular a smartphone, wherein the autonomous electronic price label has a second data transmission device for sending said at least one first and/or second product-related datum,
An OLED device having green emitting regions and red emitting regions disposed over a substrate; - each green emitting region includes: a) one or more light-emitting layers; b) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layer and arranged to resonate light produced by such layers such that the light has a green spectral component, - each red emitting region includes: i) one or more light-emitting layers; ii) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layers and arranged to resonate light produced by such layers such that the light has a red spectral component; and - a yellow color filter element (25G, 25R) disposed on the side of the semitransparent reflector (21G; 21R) so as to be between the semitransparent reflector and a viewer in each green and red emitting region so as to produce green and red light, respectively, the yellow color filter element is a high pass filter that has a cut-off wavelength of between 490 nm and 540 nm. - each green emitting region includes: a) one or more light-emitting layers; b) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layer and arranged to resonate light produced by such layers such that the light has a green spectral component, a) one or more light-emitting layers; b) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layer and arranged to resonate light produced by such layers such that the light has a green spectral component, - each red emitting region includes: i) one or more light-emitting layers; ii) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layers and arranged to resonate light produced by such layers such that the light has a red spectral component; and i) one or more light-emitting layers; ii) a reflector and a semitransparent reflector respectively disposed on opposite sides of the light-emitting layers and arranged to resonate light produced by such layers such that the light has a red spectral component; and - a yellow color filter element (25G, 25R) disposed on the side of the semitransparent reflector (21G; 21R) so as to be between the semitransparent reflector and a viewer in each green and red emitting region so as to produce green and red light, respectively, the yellow color filter element is a high pass filter that has a cut-off wavelength of between 490 nm and 540 nm.
Contactless payment device, characterised in that it comprises: - a support carrying a printed circuit and at least two electroluminescent diodes (12, 13) arranged in front of a circular cavity formed in said support; - a capsule comprising a perimeter interrupted in at least four portions (16a, 16b, 16c, 16d), it being possible to orient said capsule in at least two positions; - a ring having at least one recess on its internal periphery; said capsule being centred on said cavity of said support so as to be aligned with said at least two electroluminescent diodes (12, 13), and said ring being positioned on top of said capsule, held free to rotate, it being possible for said capsule to take at least one of the two positions: - a first position in which said at least one lug of said capsule is in contact with one end of said at least one recess of said ring, two of said at least four portions (16a, 16b, 16c, 16d) of said perimeter of said capsule allowing the light from said at least two electroluminescent diodes (12,13) to pass simultaneously, thus illuminating the capsule. - a second position in which said at least one lug of said capsule is movable between the two ends of said at least one recess of said perimeter of said capsule blocking the light from said at least two electroluminescent diodes (12, 13), thus darkening the capsule. - a support carrying a printed circuit and at least two electroluminescent diodes (12, 13) arranged in front of a circular cavity formed in said support; - a capsule comprising a perimeter interrupted in at least four portions (16a, 16b, 16c, 16d), it being possible to orient said capsule in at least two positions; - a ring having at least one recess on its internal periphery; - a first position in which said at least one lug of said capsule is in contact with one end of said at least one recess of said ring, two of said at least four portions (16a, 16b, 16c, 16d) of said perimeter of said capsule allowing the light from said at least two electroluminescent diodes (12,13) to pass simultaneously, thus illuminating the capsule. - a second position in which said at least one lug of said capsule is movable between the two ends of said at least one recess of said perimeter of said capsule blocking the light from said at least two electroluminescent diodes (12, 13), thus darkening the capsule.
Sleep posture alerting apparatus, comprising - an electronic control unit, - a body posture detecting sensor operatively connected to the control unit for detecting the posture of the body, and - an alarming device (6, 14) operatively connected to the control unit, wherein, the sleep posture alerting apparatus has a normal operational mode, in which - when the posture of the body detected by the sensor exits a predefined posture range - the control unit sends an alarm signal to the alarming device (6, 14), and the alarming device (6, 14) generates an alarm based on the signal received from the control unit, to alert said person, in which the control unit comprises a sleep-in timer and is programmed to switch the sleep posture alerting apparatus in said normal operational mode after an initial sleep-in time period, characterised in that said control unit is programmed to reset the sleep-in timer based on an evaluation of an output signal of the body posture detecting sensor which determines whether or not the detected posture of the body is in an upright position. - an electronic control unit, - a body posture detecting sensor operatively connected to the control unit for detecting the posture of the body, and - an alarming device (6, 14) operatively connected to the control unit,
Entropy encoding apparatus comprising a subdivider configured to subdivide a sequence of source symbols into a first subsequence of source symbols and a second subsequence of source symbols; a VLC encoder configured to symbol-wisely convert the source symbols of the first subsequence into codewords forming a first bit stream; and a probability interval partitioning entropy (PIPE) encoder configured to encode the second subsequence of source symbols, represented in form of a sequence of alphabet symbols, the PIPE encoder comprising an assigner configured to assign a measure for an estimate of a probability distribution among the possible values the respective alphabet symbols may assume, to each alphabet symbol of the sequence of alphabet symbols based on information contained within previous alphabet symbols of the sequence of alphabet symbols; a plurality of entropy encoders each of which is configured to convert the alphabet symbols forwarded to the respective entropy encoder into a respective second bit stream; a selector configured to forward each alphabet symbol to a selected one of the plurality of entropy encoders, the selection depending on the measure assigned to the respective alphabet symbol, characterized by a decomposer configured to convert a sequence of syntax elements into the sequence of source symbols by individually decomposing at least a subgroup of the syntax elements into a respective integer number of source symbols such that a mathematical function common for the subgroup, applied upon the integer number of source symbols of the respective syntax element, yields the respective syntax element, and the subdivider is configured such that the integer number of at least one syntax element is greater than one and one of the source symbols of the integer number of source symbols of the at least one syntax element belongs to the first subsequence of source symbols and another one of the source symbols of the integer number of source symbols of the at least one syntax element belongs to the second subsequence of source symbols. an assigner configured to assign a measure for an estimate of a probability distribution among the possible values the respective alphabet symbols may assume, to each alphabet symbol of the sequence of alphabet symbols based on information contained within previous alphabet symbols of the sequence of alphabet symbols; a plurality of entropy encoders each of which is configured to convert the alphabet symbols forwarded to the respective entropy encoder into a respective second bit stream; a selector configured to forward each alphabet symbol to a selected one of the plurality of entropy encoders, the selection depending on the measure assigned to the respective alphabet symbol,
A hot-dip Zn-Al alloy coated steel sheet characterized by comprising a hot-dip Zn-Al alloy coating layer consisting of 1.0 to 10 percent by mass of Al, 0.2 to 1.0 percent by mass of Mg, 0.005 to 0.1 percent by mass of Ni, and optionally of 0.005% to 0.05% by mass of Ce and/or La and the balance being Zn and incidental impurities on at least one surface of a steel sheet, and wherein Ni is concentrated in an outermost surface layer portion of the hot-dip Zn-Al alloy coating layer.
A computer-implemented method for simulating the physical behavior of at least one object in a 3D scene divided into a plurality of zones, comprising: - providing at least a first zone and a second zone topologically adjacent, each zone having its own computing resource; - providing an object located in one or both zones, the object having a physical state that is maintained by an object solver, wherein the physical state of the object is a set of the physical parameters of the object with the 3D scene, including the position and the speed of the object in the 3D scene. - at the step of providing the object, computing an instance of the object for each zone wherein the object is located, the computed instances of the object being identical in that the respective physical states of each one of the instances of the object are identical, wherein the object solver uses the physical state of the object to compute the instances, and wherein, for each zone wherein the object is located, a solver associated to the zone handles a relationship between the physical state of the object and the instance of the object; and - simulating the physical behavior of the object, the simulation being performed by the computing resource of each one of said first and second zones and according to a physical state linked with the instance of the object, physical parameters of the set of physical parameters of the instance of the object being used for performing the simulation, the simulation of the physical behavior of the object being made from each one of the instances of the object that have an identical physical state. - providing at least a first zone and a second zone topologically adjacent, each zone having its own computing resource; - providing an object located in one or both zones, the object having a physical state that is maintained by an object solver, wherein the physical state of the object is a set of the physical parameters of the object with the 3D scene, including the position and the speed of the object in the 3D scene. - at the step of providing the object, computing an instance of the object for each zone wherein the object is located, the computed instances of the object being identical in that the respective physical states of each one of the instances of the object are identical, wherein the object solver uses the physical state of the object to compute the instances, and wherein, for each zone wherein the object is located, a solver associated to the zone handles a relationship between the physical state of the object and the instance of the object; and - simulating the physical behavior of the object, the simulation being performed by the computing resource of each one of said first and second zones and according to a physical state linked with the instance of the object, physical parameters of the set of physical parameters of the instance of the object being used for performing the simulation, the simulation of the physical behavior of the object being made from each one of the instances of the object that have an identical physical state.
A terminal apparatus comprising: a reception circuitry configured to receive a transmission power control command via a downlink control information format in a downlink subframe; and a transmission power control circuitry configured to adjust a transmit power on the basis of the transmission power control command, wherein the reception circuitry is configured, in a case that the terminal apparatus is in a first state that cell specific reference signal is available for a reference signal received power measurement, to receive the transmission power control command in any of downlink subframes, and in a case that the terminal apparatus is in a second state that channel state information reference signal is available for a reference signal received power measurement, to receive the transmission power control command as a first transmission power control command in a case that the downlink subframe is a downlink subframe corresponding to a subframe belonging to a first subframe set, and to receive the transmission power control command as a second transmission power control command in a case that the downlink subframe is a downlink subframe corresponding to a subframe belonging to a second subframe set. a reception circuitry configured to receive a transmission power control command via a downlink control information format in a downlink subframe; and a transmission power control circuitry configured to adjust a transmit power on the basis of the transmission power control command, wherein the reception circuitry is configured, in a case that the terminal apparatus is in a first state that cell specific reference signal is available for a reference signal received power measurement, to receive the transmission power control command in any of downlink subframes, and in a case that the terminal apparatus is in a second state that channel state information reference signal is available for a reference signal received power measurement, to receive the transmission power control command as a first transmission power control command in a case that the downlink subframe is a downlink subframe corresponding to a subframe belonging to a first subframe set, and to receive the transmission power control command as a second transmission power control command in a case that the downlink subframe is a downlink subframe corresponding to a subframe belonging to a second subframe set.
Turbine having a turbine regulation unit, a turbine protection unit, at least one safety block, quick-closing valves and regulating valves, wherein the quick-closing valves and the regulating valves are able to be actuated via assigned switching and actuating drives (15, 41), characterized in that the at least one safety block is a pneumatic safety block, and in that at least one switching drive for directly or indirectly actuating a quick-closing valve is a pneumatic switching drive.
An elastomeric laminate, comprising: a plurality of elastic strands between of first and second nonwovens; wherein the plurality of elastic strands has an Average-Strand-Spacing from 0.25 mm to 4 mm; wherein the plurality of elastic strands has an Average-Dtex from 10 to 400, as measured according to the test method set out herein; wherein the plurality of elastic strands has an Average-Pre-Strain from 50% to 300%, as measured according to the test method set out herein; wherein a Peel-Strength between the first and second nonwovens is from 1 N/cm to 15 N/cm, as measured according to the test method set out herein; wherein a plurality of densified bonds joins the first and second nonwovens together; wherein the plurality of densified bonds is discrete and spaced from each other; wherein the plurality of densified bonds overlaps and at least partially surround portions of the plurality of elastic strands; wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand and of at least one of the first and second nonwovens is from 1.5 to 10; wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands is from 65:1 to 150:1; and wherein the elastomeric laminate forms at least a portion of a disposable absorbent article. a plurality of elastic strands between of first and second nonwovens; wherein the plurality of elastic strands has an Average-Strand-Spacing from 0.25 mm to 4 mm; wherein the plurality of elastic strands has an Average-Dtex from 10 to 400, as measured according to the test method set out herein; wherein the plurality of elastic strands has an Average-Pre-Strain from 50% to 300%, as measured according to the test method set out herein; wherein a Peel-Strength between the first and second nonwovens is from 1 N/cm to 15 N/cm, as measured according to the test method set out herein; wherein a plurality of densified bonds joins the first and second nonwovens together; wherein the plurality of densified bonds is discrete and spaced from each other; wherein the plurality of densified bonds overlaps and at least partially surround portions of the plurality of elastic strands; wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand and of at least one of the first and second nonwovens is from 1.5 to 10; wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands is from 65:1 to 150:1; and wherein the elastomeric laminate forms at least a portion of a disposable absorbent article.