mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a remote cabinet comprising a Digital Subscriber Line Access Multiplexer (DSLAM) connected to a network, the method comprising: providing a broadband service to a plurality of customer premises equipment via a plurality of telephone lines, determining, by a power unit of the remote cabinet, load represented by the DSLAM, drawing electrical power from power mains in each of customer premises via the plurality of customer premises equipment and via the plurality of telephone lines, wherein the electrical power is converted from AC power to DC power, regulating an amount of DC power drawn from a single customer premises equipment based on a number of customer premises equipment connected to the remote cabinet and able to provide power, and electrical power requirements of the remote cabinet. providing a broadband service to a plurality of customer premises equipment via a plurality of telephone lines, determining, by a power unit of the remote cabinet, load represented by the DSLAM, drawing electrical power from power mains in each of customer premises via the plurality of customer premises equipment and via the plurality of telephone lines, wherein the electrical power is converted from AC power to DC power, regulating an amount of DC power drawn from a single customer premises equipment based on a number of customer premises equipment connected to the remote cabinet and able to provide power, and electrical power requirements of the remote cabinet.
Method for identifying the elemental composition of a molecule and/or quantifying the presence of mono-isotopic elements in a molecule in a sample, whereby said molecule has a chemical formula Π α ( Z α) n α with • α an index running over a number of expected constituent atomic species of said molecule; • Z α the α'th expected atomic species of the molecule; and • n α the number of atoms of species Z α in the molecule, comprising the steps of: • obtaining at least a part of an isotopic distribution from said sample; • computing a set of N p peak heights t j with j = 1... N p, of at least part of an aggregated isotopic distribution from said isotopic distribution; • computing from said set of peak heights a set of N p -1 ratios of peak heights t̂ i with i = 1... N p - 1; • obtaining a value of n α for at least one atomic species Z α from said set of relative peak heights, wherein said value of n α is obtained by computing a solution of a system of linear equations ∑ α E i α n α = F i, whereby the set of numbers F i comprises said set of relative peak heights and the coefficients E i α of said linear system comprise powers and/or power sums of roots r α, i α, with i α = 1...N α, of an N α 'th-order elemental polynomial equation whose coefficient of the m α 'th order term is given by an elemental abundance P ⁢ A α + m α z α Z α of the isotope of the atom species Z α with m α neutrons more than the lightest stable isotope of said atom species which has atomic mass number A α, whereby the masses at which the peak heights t j are observed are essentially 1 Da apart, whereby said set of N p - 1 ratios of peak heights t̂ i with i = 1... N p - is computed recursively from said set of N p peak heights t j with j = 1.... N p, using the steps of: • computing t ^ 1 = - t 2 t 1; • comuting t ^ i + 1 = - 1 t 1 ⁢ i + 1 ⁢ t i + 2 + ∑ j = 1 i t ^ i - j + 1 ⁢ t j + 1 for i = 2... N p - 1. • α an index running over a number of expected constituent atomic species of said molecule; • Z α the α'th expected atomic species of the molecule; and • n α the number of atoms of species Z α in the molecule, • obtaining at least a part of an isotopic distribution from said sample; • computing a set of N p peak heights t j with j = 1... N p, of at least part of an aggregated isotopic distribution from said isotopic distribution; • computing from said set of peak heights a set of N p -1 ratios of peak heights t̂ i with i = 1... N p - 1; • obtaining a value of n α for at least one atomic species Z α from said set of relative peak heights, • computing t ^ 1 = - t 2 t 1; • comuting t ^ i + 1 = - 1 t 1 ⁢ i + 1 ⁢ t i + 2 + ∑ j = 1 i t ^ i - j + 1 ⁢ t j + 1 for i = 2... N p - 1.
A multilayer film having thickness of 50-200 microns, where the film comprises a polyolefin polymer, an outer layer comprising polyamide and an inner layer comprising a blend of ethylene alpha olefin copolymers and polyether copolymers, where the outer layer comprises a blend of two or more polyamides and the outer layer further comprises polyamide based slip and/or polyamide based antiblock additives.
Container made of plastic material, provided with a body and a bottom extending from a bottom end of the body, the bottom comprising; - a peripheral seat defining a resting plane; - a concave arch which extends from a central zone; - a series of main reinforcing grooves which extend radially from the central zone to at least the seat, characterized in that the arch has three concentric regions, namely a central region, a median region and a peripheral region, separated respectively by an inner axial indentation and an outer axial indentation which extend annularly continuously around the central zone, such that the central region is raised relative to the median region, and the median region is raised relative to the peripheral region. - a peripheral seat defining a resting plane; - a concave arch which extends from a central zone; - a series of main reinforcing grooves which extend radially from the central zone to at least the seat,
A method for wireless communication, comprising: identifying a first transmission to be transmitted from a first transmitter of a first basic service set, BSS; and dynamically forbidding one or more other transmitters of an overlapping BSS that overlaps with the first BSS from concurrent transmissions with the first transmitter during the first transmission, wherein the dynamically forbidding comprises setting a field in a preamble of a frame that indicates one or more other transmitters of the overlapping BSS are forbidden from using a wireless channel during the first transmission, and wherein the field in the preamble is different from a color field in the preamble. identifying a first transmission to be transmitted from a first transmitter of a first basic service set, BSS; and dynamically forbidding one or more other transmitters of an overlapping BSS that overlaps with the first BSS from concurrent transmissions with the first transmitter during the first transmission, wherein the dynamically forbidding comprises setting a field in a preamble of a frame that indicates one or more other transmitters of the overlapping BSS are forbidden from using a wireless channel during the first transmission, and wherein the field in the preamble is different from a color field in the preamble.
A method for operating an elevator control device provided for controlling and monitoring movements of at least one elevator car, wherein the elevator car approaches individual floors in a building while under control of the elevator control and executes a floor stop respectively in a prescribed stopping position, characterized in that: in conjunction with the floor stop, an overall error is determined in the form of a deviation between an actual position of the elevator car and a position of the elevator car that is assumed as a current position; and the elevator control device generates service signals on the basis of a statistical acquisition of a plurality of values of the overall error.
A system for imaging biopsy tissue, having: means for encapsulating an excised tissue specimen in compression in a transparent cassette of material substantially free of birefringence, which is a shell being a hollow generally cylindrical tube through which an axis extends, means for scanning said shell including means (41, 42, 44) connected to said shell for rotating said shell about the axis and means engageable with said shell or a support, which constrains said shell to rotate about said axis, for translating said shell along said axis, and wherein the system has further means (14, 28) for providing an image of the tissue specimen suitable for pathological examination.
Surface characterization method, characterized in that it comprises the following steps: - the topography of the surface to be characterized (S, Pa, Lb) is measured to determine a measurement vector ( mes V), - the modal vectors of a modal base of a reference geometrical element are interpolated, for each measured location ((X i, Y j)) of the surface to be characterized (S, Pa, Lb), the modal base being a vector base comprising modal vectors, previously stored in memory for a predetermined number of modal vectors, the modal vectors being the vibration modes of the reference geometrical element in vector form, derived from the solving of the vibratory mechanics equation: M ⋅ q ̈ + K ⋅ q = 0 in which M is the mass matrix of the mechanical structure corresponding to the modelling of the surface to be characterized, K is the stiffness matrix and q is a displacement vector, to obtain an interpolated modal base ( int Q) in which each modal vector has a dimension identical to the dimension (n mes, 1) of the measurement vector ( mes V), and - the measurement vector ( mes V) is decomposed in the interpolated modal base ( int Q) by an operation of vector projection of the measurement vector ( mes V) in the interpolated modal base ( int Q), for the predetermined number of modes (Nq) in order to determine the contributions (λ i) of each of the modes in the surface to be characterized. - the topography of the surface to be characterized (S, Pa, Lb) is measured to determine a measurement vector ( mes V), - the modal vectors of a modal base of a reference geometrical element are interpolated, for each measured location ((X i, Y j)) of the surface to be characterized (S, Pa, Lb), the modal base being a vector base comprising modal vectors, previously stored in memory for a predetermined number of modal vectors, the modal vectors being the vibration modes of the reference geometrical element in vector form, derived from the solving of the vibratory mechanics equation: M ⋅ q ̈ + K ⋅ q = 0 in which M is the mass matrix of the mechanical structure corresponding to the modelling of the surface to be characterized, K is the stiffness matrix and q is a displacement vector, to obtain an interpolated modal base ( int Q) in which each modal vector has a dimension identical to the dimension (n mes, 1) of the measurement vector ( mes V), and - the measurement vector ( mes V) is decomposed in the interpolated modal base ( int Q) by an operation of vector projection of the measurement vector ( mes V) in the interpolated modal base ( int Q), for the predetermined number of modes (Nq) in order to determine the contributions (λ i) of each of the modes in the surface to be characterized.
A method for producing a multilayer data carrier, which has a first layer of plastic that comprises an upper side on which an opaque layer partially covering this upper side is arranged, and having a second layer of plastic which is arranged on the first layer and is transparent at least in a subregion of the opaque layer, wherein the opaque layer is produced from a material which is modified during irradiation in such a way that it becomes transparent or at least translucent in the irradiated region characterized in that the material of the opaque layer is a partially crystalline plastic.
A cutting unit arrangement for a harvester comprising a cutting unit which has at least one working device (15, 17, 18, 19, 23) relating to the processing and/or conveying of harvested crops and which has a drive (25a-e) for the working device, wherein the drive (25a-e) is configured to drive the working device (15, 17, 18, 19, 23) in accordance with harvesting operation via a rotatable drive element, wherein the revolution speed of the drive element is variable, and wherein the or each drive (25a-e) is designed as an electric drive; wherein the cutting unit comprises a rotatable reel which forms the at least one working device, characterized in that a control device of the cutting unit arrangement associated with the drive (25a-e) is configured to regulate the revolution speed of the drive element using a predefined desired revolution speed value, wherein the control device is configured to determine the desired revolution speed value or all the desired revolution speed values automatically, in particular without operator intervention, using at least one input signal; wherein means are provided for detecting an actual revolution speed value and/or an actual torque value of the drive element and the control device is configured to determine the desired revolution speed value in dependence on the detected actual revolution speed value and/or on the detected actual torque value; wherein the control device is configured to carry out a plausibility check and/or to define a load-dependent servicing interval on the basis of the detected actual revolution speed value and/or on the basis of the detected actual torque value; and/or wherein the control device is configured to increase the desired revolution speed value of the drive element as soon as an actual torque value of the respective drive element increases by a predefined threshold value.
A process of producing chlorine gas by catalytic oxidation of hydrogen chloride, characterized in that said process comprises following steps: A) incorporating an oxidizing agent into a gas stream of hydrogen chloride containing impurities, conducting oxidation pretreatment of said gas stream under the action of ultrasonic wave, such that said impurities in the gas stream are oxidized; B) the gas stream obtained after the oxidation pretreatment in step A) is allowed to pass through a separator device wherein the oxidized impurities in the form of liquid and/or the oxidized impurities in the form of solid are removed from said gas stream so as to obtain a purified gas stream of hydrogen chloride; and C) the purified gas stream of hydrogen chloride from step B) is well mixed with a gas stream containing molecular oxygen, the resultant gas mixture is preheated to a reaction temperature, and then introduced into an oxidation reactor and catalytically oxidized in the presence of a catalyst to produce chlorine gas; wherein the oxidizing agent used in step A) does not generate additional or new impurities in the whole reaction system; the impurities contained in the gas stream of hydrogen chloride are inorganic or organic compounds containing sulfur, organic compounds containing halogen, or hydrocarbons not containing halogen; said oxidizing agent is one or more chosen from the group consisted of hydrogen peroxide solution, ozone, hypochlorous acid, chlorine, chlorine dioxide, and chlorine trioxide. A) incorporating an oxidizing agent into a gas stream of hydrogen chloride containing impurities, conducting oxidation pretreatment of said gas stream under the action of ultrasonic wave, such that said impurities in the gas stream are oxidized; B) the gas stream obtained after the oxidation pretreatment in step A) is allowed to pass through a separator device wherein the oxidized impurities in the form of liquid and/or the oxidized impurities in the form of solid are removed from said gas stream so as to obtain a purified gas stream of hydrogen chloride; and C) the purified gas stream of hydrogen chloride from step B) is well mixed with a gas stream containing molecular oxygen, the resultant gas mixture is preheated to a reaction temperature, and then introduced into an oxidation reactor and catalytically oxidized in the presence of a catalyst to produce chlorine gas;
Transport device for a sheet-format substrate having at least one first substrate feed device and having at least one second substrate feed device, wherein the at least one second substrate feed device comprises at least one forward stop and at least one singulating device, wherein at least one substrate guiding device is located between the at least one first substrate feed device and the at least one second substrate feed device and wherein the at least one substrate guiding device has at least one guide element, wherein the at least one guide element is mounted such that it is movable and/or moved in two different directions independently of one another, characterized in that the at least one guide element has at least one guide bar which is mounted for rotational displacement.
A gas turbine engine, comprising: an airfoil having a tip wall that joins outer spanwise ends of a suction sidewall and a pressure sidewall; and an air seal radially outward of said tip wall and positioned to minimize leakage at said tip wall, characterised in that the airfoil further comprises: a tip rib extending chordwise along at least a portion of a pressure side of the tip wall; a tip shelf at a junction of the pressure sidewall and the tip wall; and a plurality of curved tip leakage control channels recessed into an outer surface of said tip wall, wherein each of said plurality of curved tip leakage control channels is adjacent one of a plurality of tip leakage control vanes integrally formed on said tip wall contiguous with a suction side surface of the tip rib. an airfoil having a tip wall that joins outer spanwise ends of a suction sidewall and a pressure sidewall; and an air seal radially outward of said tip wall and positioned to minimize leakage at said tip wall, a tip rib extending chordwise along at least a portion of a pressure side of the tip wall; a tip shelf at a junction of the pressure sidewall and the tip wall; and a plurality of curved tip leakage control channels recessed into an outer surface of said tip wall, wherein each of said plurality of curved tip leakage control channels is adjacent one of a plurality of tip leakage control vanes integrally formed on said tip wall contiguous with a suction side surface of the tip rib.
A control device (90; 232) of a hybrid vehicle (10; 200) including an engine (12; 202), a power transmission device (16; 206) configured to transmit a power of the engine to drive wheels (14; 204), a mechanical oil pump (58; 210) configured to be rotated together with a rotation of the engine to discharge a hydraulic oil used in the power transmission device, an electric oil pump (60; 230) configured to be rotated by a motor (62; 228) dedicated to the electric oil pump to discharge the hydraulic oil, a first rotating machine configured to raise a rotation speed (Ne) of the engine, and a second rotating machine coupled to the drive wheels in a power transmittable manner, the control device comprising: a hybrid control portion configured to cause the hybrid vehicle to run in a motor running mode in which at least the second rotating machine is used as a drive power source for running out of the first rotating machine and the second rotating machine with operation of the engine stopped; a state determining portion configured to determine whether a temperature (THoil) of the hydraulic oil is lower than a predetermined oil temperature; and characterised in that it comprises a pump control portion configured to control the first rotating machine to rotate the mechanical oil pump so as to cause the mechanical oil pump to discharge the hydraulic oil when it is determined that the temperature of the hydraulic oil is lower than the predetermined oil temperature, and configured to control the motor dedicated to the electric oil pump to cause the electric oil pump to discharge the hydraulic oil when it is determined that the temperature of the hydraulic oil is higher than the predetermined oil temperature, at the time of running in the motor running mode. a hybrid control portion configured to cause the hybrid vehicle to run in a motor running mode in which at least the second rotating machine is used as a drive power source for running out of the first rotating machine and the second rotating machine with operation of the engine stopped; a state determining portion configured to determine whether a temperature (THoil) of the hydraulic oil is lower than a predetermined oil temperature; and characterised in that it comprises a pump control portion configured to control the first rotating machine to rotate the mechanical oil pump so as to cause the mechanical oil pump to discharge the hydraulic oil when it is determined that the temperature of the hydraulic oil is lower than the predetermined oil temperature, and configured to control the motor dedicated to the electric oil pump to cause the electric oil pump to discharge the hydraulic oil when it is determined that the temperature of the hydraulic oil is higher than the predetermined oil temperature, at the time of running in the motor running mode.
A bioabsorbable stent comprising: a first tubular unit containing a plurality of cells coupled to each other, each of the cells formed from substantially linear parts and a substantially circular arc part and having a substantially U shape which opens to one end in the axial direction of the stent; and a second tubular unit having the same shape as that of the first tubular unit, the second tubular unit containing a plurality of cells each of which has a substantially U shape which opens to a direction opposite to the opening direction of the opposing first cell, wherein the first tubular unit and the second tubular unit are alternately arranged in sequence so as to surround a central axis of the stent; and wherein coupling members couple substantially linear parts in some of the opposing cells in the respective neighboring tubular units; a ratio of a width (w T) of the cell line at the top of the circular arc part of the substantially U-shaped cell to a width (w S) of the cell line at the substantially linear part of the same cell is selected within a range defined by the following formula; a ratio of a height (h) between neighboring top and bottom of the cell to a width (w) between the top and the bottom of the cell is selected within a range defined by the following formula; and a maximum principal stress (σ max) at the time of expansion is selected to fall within a range defined by the following formula; and all of the cells constituting the first and second tubular units contain a bioabsorbable metal. 1.1 < width w T of the cell line at the top of the circular arc part / width w S of the cell line at the substantially linear part < 1.5 0.12 < cell height h / cell width w < 1.3 in the case of a nominal diameter Maximum principal stress σ max at the time of stent expansion < tensile stregth S of a cell constituting material