mhurhangee/ep-ind-claims huggingface dataset:
A linear predictive analysis method for obtaining a coefficient which can be converted into a linear predictive coefficient corresponding to an input time series signal for each frame which is a predetermined time interval, the input time series signal being a digital audio signal, a digital acoustic signal, an electrocardiogram, an electroencephalogram, a magnetic encephalography or a seismic wave, the linear predictive analysis method comprising: an autocorrelation calculating step of calculating autocorrelation R o (i) between the input time series signal X o (n) of a current frame and the input time series signal X 0 (n-i) i sample before the input time series signal X o (n) or the input time series signal X o (n+i) i sample after the input time series signal X o (n) for each of at least i = 0, 1,..., P max; and a predictive coefficient calculating step of obtaining a coefficient which can be converted into linear predictive coefficients from the first-order to the P max -order using modified autocorrelation R' o (i) obtained by multiplying the autocorrelation R o (i) by a coefficient w o (i) for each corresponding i, characterized in that a case is comprised where, for at least part of each order i, the coefficient w o (i) corresponding to each order i monotonically decreases as a value having positive correlation with a pitch gain based on the input time series signal of the current frame or a past frame increases, the pitch gain being a normalized correlation between signals with time difference by a pitch period for the input time series signal or a linear predictive residual signal of the input time series signal. an autocorrelation calculating step of calculating autocorrelation R o (i) between the input time series signal X o (n) of a current frame and the input time series signal X 0 (n-i) i sample before the input time series signal X o (n) or the input time series signal X o (n+i) i sample after the input time series signal X o (n) for each of at least i = 0, 1,..., P max; and a predictive coefficient calculating step of obtaining a coefficient which can be converted into linear predictive coefficients from the first-order to the P max -order using modified autocorrelation R' o (i) obtained by multiplying the autocorrelation R o (i) by a coefficient w o (i) for each corresponding i, characterized in that a case is comprised where, for at least part of each order i, the coefficient w o (i) corresponding to each order i monotonically decreases as a value having positive correlation with a pitch gain based on the input time series signal of the current frame or a past frame increases, the pitch gain being a normalized correlation between signals with time difference by a pitch period for the input time series signal or a linear predictive residual signal of the input time series signal.
A method for position determination of a wireless device, the method being performed by the wireless device, the method comprising: detecting, whilst being operatively connected to a source radio access technology, RAT, an indicator requiring a handover of the wireless device to a target RAT, the indicator further requiring a position of the wireless device to be determined, and in response thereto, sending an Extended Service Request to a mobility management node for mobile originating circuit switched fallback, CSFB, indicating that the purpose is an emergency call; starting, in response thereto, a positioning detection procedure of the wireless device with an evolved serving mobile location center, E-SMLC, before being handed over to the target RAT, the positioning detection procedure involving processing of positioning measurements; keeping the positioning measurements of the positioning detection procedure whilst the wireless device is being handed over from the source RAT to the target RAT; and continuing the positioning detection procedure using the positioning measurements whilst being operatively connected to the target RAT. detecting, whilst being operatively connected to a source radio access technology, RAT, an indicator requiring a handover of the wireless device to a target RAT, the indicator further requiring a position of the wireless device to be determined, and in response thereto, sending an Extended Service Request to a mobility management node for mobile originating circuit switched fallback, CSFB, indicating that the purpose is an emergency call; starting, in response thereto, a positioning detection procedure of the wireless device with an evolved serving mobile location center, E-SMLC, before being handed over to the target RAT, the positioning detection procedure involving processing of positioning measurements; keeping the positioning measurements of the positioning detection procedure whilst the wireless device is being handed over from the source RAT to the target RAT; and continuing the positioning detection procedure using the positioning measurements whilst being operatively connected to the target RAT.
A food cooking installation comprising: - a cooking chamber, - at least one conveyor belt positioned in said cooking chamber and following a spiral path of vertical axis, to receive food products and drive them from an inlet opening to an outlet opening of said chamber, - a heat exchange circuit comprising a bundle of pipes disposed as a spiral inserted within said conveyor belt and divided into several portions (60, 62) involving different vertically superposed zones of said cooking chamber and connected together in parallel, and to a heat control unit for generating a heating fluid, - means for independently regulating the flow rate of said heating fluid within said portions (60, 62) of the heat exchange circuit, - a management and control unit for said heat exchange circuit and for means for driving said conveyor belt, characterised in that the means for driving the conveyor belt comprise toothed wheels, which are keyed along shafts and which engage appendices emerging laterally from facing links of a chain applied to the outer edge of the conveyor belt, such that, on rotating of each shaft by means of an actuator, the toothed wheels are made to rotate and drag said conveyor belt into movement along a spiral structure comprising a plurality of vertical columns arranged relative to each other such as to define two coaxial cylindrical surfaces for supporting the superposed spiral turns of said conveyor belt. - a cooking chamber, - at least one conveyor belt positioned in said cooking chamber and following a spiral path of vertical axis, to receive food products and drive them from an inlet opening to an outlet opening of said chamber, - a heat exchange circuit comprising a bundle of pipes disposed as a spiral inserted within said conveyor belt and divided into several portions (60, 62) involving different vertically superposed zones of said cooking chamber and connected together in parallel, and to a heat control unit for generating a heating fluid, - means for independently regulating the flow rate of said heating fluid within said portions (60, 62) of the heat exchange circuit, - a management and control unit for said heat exchange circuit and for means for driving said conveyor belt, characterised in that the means for driving the conveyor belt comprise toothed wheels, which are keyed along shafts and which engage appendices emerging laterally from facing links of a chain applied to the outer edge of the conveyor belt, such that, on rotating of each shaft by means of an actuator, the toothed wheels are made to rotate and drag said conveyor belt into movement along a spiral structure comprising a plurality of vertical columns arranged relative to each other such as to define two coaxial cylindrical surfaces for supporting the superposed spiral turns of said conveyor belt.
Switching topology for a phase connection for an inverter with a switching bridge, the output of which can be connected to a centre potential (U_ZK/2) located between the upper and a lower limit potential via at least two upper and lower half-bridges consisting of initial power switches (S1, S2; S3, S4) with at least one upper (U_ZK+) and one lower limit potential (U_ZK-) as well as via a diode (D1, D2) and an initial power switch (S2, S3) in the upper or lower half of the bridge switched in series with it, characterized by the fact that the upper and the lower halves of the bridge each consist of another, second power switch (S5, S6) which is switched in parallel with the series switching arrangement of the first power switches (S1, S2; S3, S4).
A communication method, wherein the method comprises: allocating communication resources to a terminal device; and sending control information to the terminal device, wherein the control information comprises a resource identifier, and the resource identifier is used to indicate that allocated frequency domain resources are all frequency domain resources that can be supported by the terminal device on one carrier or some of all frequency domain resources that can be supported by the terminal device on one carrier; characterised in that the method further comprises: determining a time domain resource indication value, wherein when (L s -1) is less than or equal to ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × L s − 1 + S start, wherein L s is a length of allocated time domain resources, S start is a start symbol of the allocated time domain resources, N Sym DL is a quantity of symbols in one slot, L s is greater than or equal to 1, and L s is less than or equal to N Sym DL − S start; and when (L s -1) is greater than ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × N Sym DL − L s + 1 + N Sym DL − 1 − S start; and sending, to the terminal device, information indicating the time domain resource indication value. allocating communication resources to a terminal device; and sending control information to the terminal device, wherein the control information comprises a resource identifier, and the resource identifier is used to indicate that allocated frequency domain resources are all frequency domain resources that can be supported by the terminal device on one carrier or some of all frequency domain resources that can be supported by the terminal device on one carrier; characterised in that the method further comprises: determining a time domain resource indication value, wherein when (L s -1) is less than or equal to ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × L s − 1 + S start, wherein L s is a length of allocated time domain resources, S start is a start symbol of the allocated time domain resources, N Sym DL is a quantity of symbols in one slot, L s is greater than or equal to 1, and L s is less than or equal to N Sym DL − S start; and when (L s -1) is greater than ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × N Sym DL − L s + 1 + N Sym DL − 1 − S start; and determining a time domain resource indication value, wherein when (L s -1) is less than or equal to ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × L s − 1 + S start, wherein L s is a length of allocated time domain resources, S start is a start symbol of the allocated time domain resources, N Sym DL is a quantity of symbols in one slot, L s is greater than or equal to 1, and L s is less than or equal to N Sym DL − S start; and when (L s -1) is greater than ⌊ N Sym DL / 2 ⌋, the time domain resource indication value meets N Sym DL × N Sym DL − L s + 1 + N Sym DL − 1 − S start; and sending, to the terminal device, information indicating the time domain resource indication value.
A modular lamp system for light emitting diodes, comprising: - a lamp body comprising a mounting plate provided with a plurality of fastening means configured for fastening a light module having a longitudinal axis, the number of fastening means provided exceeding the number that would be necessary for fastening a single light module, - at least one light module comprising at least one light emitting diode as well as at least one fastening arrangement configured for cooperating with at least one of the fastening means of the mounting plate so as to fasten the light module to the mounting plate, and a lamp frame, which is adapted to be connected to the lamp body, characterized in that a plurality of light modules is adapted to be fastened to the mounting plate, the fastening means being arranged on the mounting plate in such a way that each light module to be fastened can be fastened to the mounting plate with at least two different orientations of its longitudinal axis relative to said mounting plate. - a lamp body comprising a mounting plate provided with a plurality of fastening means configured for fastening a light module having a longitudinal axis, the number of fastening means provided exceeding the number that would be necessary for fastening a single light module, - at least one light module comprising at least one light emitting diode as well as at least one fastening arrangement configured for cooperating with at least one of the fastening means of the mounting plate so as to fasten the light module to the mounting plate, and a lamp frame, which is adapted to be connected to the lamp body,
A telescopic truck mast (1, 2, 3) fixable to a truck through a fixed mast part, said telescopic truck mast (1, 2, 3) comprising, further to the fixed mast part, at least two mutually telescopically moveable mast parts (1, 2), each of said mutual movements of the mast parts (1, 2, 3) being coupled in a known manner so that during a lifting movement all the mast parts (1, 2, 3) move in relation to each other, each of said mutually moveable mast parts (1, 2, 3) comprising three vertical beams (4, 5, 6), namely a central vertical beam and two vertical side beams (5, 6) arranged to the sides of the truck, the three vertical beams (4, 5, 6) being located in the corners of a triangle, and the truck mast (1, 2, 3) further comprising lifting cylinders placed close to the vertical side beams (5, 6) of the truck mast (1, 2, 3) at the sides of the truck for lifting a load, characterized in that a balance cylinder is arranged between the lowest moveable mast part and the fixed mast part next to the central vertical beam of the fixed mast part for balancing the weight of the movable mast parts (4, 5) that are lifted.
A cutting tool hard film disposed as coating on a surface of a cutting tool, wherein the cutting tool hard film is a multilayer film having a first film layer that is Ag, and a second film layer that is nitride, oxide, carbide, carbonitrides, or boride of Al 1-a-b Cr a M b alternately laminated in 44 or more layers, wherein said M related to the second film layer includes at least one of Si, V, and W, wherein said atom ratio a related to the second film layer is within a range of 0.2 or more and 0.5 or less while said b is within a range larger than 0 and equal to or less than 0.3, wherein a lamination cycle of the first film layer and the second film layer is within a range of 0.2 nm or more and 100 nm or less, and wherein a total film thickness is within a range of 0.2 μm or more and 10.0 μm or less.
A pesticidal aqueous suspension composition comprising (a) cyazofamid, (b) a polyalkylene-modified polymethylsiloxane non-ionic surface active agent, (c) a viscosity-reducing agent selected from dihydric alcohol and a polyoxyethylene styrylphenyl ether anionic surface active agent, (d) an antifoaming agent, (e) a pH adjustor selected from a buffer, an acid, a salt and a base, and (f) a dispersant. (a) cyazofamid, (b) a polyalkylene-modified polymethylsiloxane non-ionic surface active agent, (c) a viscosity-reducing agent selected from dihydric alcohol and a polyoxyethylene styrylphenyl ether anionic surface active agent, (d) an antifoaming agent, (e) a pH adjustor selected from a buffer, an acid, a salt and a base, and (f) a dispersant.
A method for sequencing DNA, the method comprising: obtaining an aqueous fluid comprising DNA molecules; forming a droplet comprising a DNA molecule by partitioning the aqueous fluid with an immiscible fluid as it is flowing through a channel; conducting a PCR reaction on the DNA molecule using primers comprising a binding moiety in a plurality of the droplets in the immiscible fluid while the droplets flow through a serpentine channel, thereby forming amplified DNA molecules; flowing the droplets across a surface coated with an immobilization compound; breaking the droplets to release the amplified DNA molecules; attaching the released amplified DNA molecules to the surface using the binding moieties and the immobilization compound; and sequencing the amplified DNA molecules. obtaining an aqueous fluid comprising DNA molecules; forming a droplet comprising a DNA molecule by partitioning the aqueous fluid with an immiscible fluid as it is flowing through a channel; conducting a PCR reaction on the DNA molecule using primers comprising a binding moiety in a plurality of the droplets in the immiscible fluid while the droplets flow through a serpentine channel, thereby forming amplified DNA molecules; flowing the droplets across a surface coated with an immobilization compound; breaking the droplets to release the amplified DNA molecules; attaching the released amplified DNA molecules to the surface using the binding moieties and the immobilization compound; and sequencing the amplified DNA molecules.
Capsule for the preparation of a beverage or food in a beverage or food preparation machine comprising: - an enclosure containing one or more beverage or food ingredients, said enclosure presenting an opening, - a sealing cover closing the opening of the enclosure, wherein the cover presents along its external surface at least two different zones, one first zone consisting of an aluminium sheet and one second zone comprising a plastic film, said capsule being characterized in that information are printed on the second zone, and the second zone is a laminate of a plastic film and an aluminium sheet and the information are printed on the side of the plastic film attached to the aluminium sheet. - an enclosure containing one or more beverage or food ingredients, said enclosure presenting an opening, - a sealing cover closing the opening of the enclosure,
A process for reducing the amount of compound of formula and compound of formula in a mixture of compound, compound and compound, or solvates or salts thereof, wherein R 1 and R 2 are independently hydrogen or CH 3, the process comprising: hydrogenation of the mixture in a composition containing sulfuric acid (H 2 SO 4) at a temperature of 115 °C or more, wherein the concentration of sulfuric acid is 10.2 wt % or more. hydrogenation of the mixture in a composition containing sulfuric acid (H 2 SO 4) at a temperature of 115 °C or more, wherein the concentration of sulfuric acid is 10.2 wt % or more.
Food composition comprising one or more isoflavones or metabolites thereof and conjugated linoleic acid and L-carnitine, for use in the reduction of obesity in an animal, wherein the animal has been neutered, castrated, or spayed, or wherein the animal is postmenopausal or postandropausal.
An apparatus for analyzing fuel supplied to a combustion engine during operation of the engine, the apparatus comprising: a fuel flow measurement assembly for measuring respective indications of a temperature of the fuel supplied to said engine and a density of the fuel supplied to said engine; and a control entity for deriving one or more parameters that are descriptive of observed fuel quality based at least on said temperature of the fuel and said density of the fuel, the control entity arranged to: derive a temperature-adjusted fuel density based on the indicated density of fuel in dependence of a relationship between the indicated temperature of the fuel and a predefined reference temperature that is applicable for deriving a lower heating value, LHV, that is descriptive of the amount of heat released during combustion of a predefined amount of said fuel; and derive the LHV as a net specific energy using a second-order function of the temperature-adjusted fuel density. a fuel flow measurement assembly for measuring respective indications of a temperature of the fuel supplied to said engine and a density of the fuel supplied to said engine; and a control entity for deriving one or more parameters that are descriptive of observed fuel quality based at least on said temperature of the fuel and said density of the fuel, the control entity arranged to: derive a temperature-adjusted fuel density based on the indicated density of fuel in dependence of a relationship between the indicated temperature of the fuel and a predefined reference temperature that is applicable for deriving a lower heating value, LHV, that is descriptive of the amount of heat released during combustion of a predefined amount of said fuel; and derive the LHV as a net specific energy using a second-order function of the temperature-adjusted fuel density. derive a temperature-adjusted fuel density based on the indicated density of fuel in dependence of a relationship between the indicated temperature of the fuel and a predefined reference temperature that is applicable for deriving a lower heating value, LHV, that is descriptive of the amount of heat released during combustion of a predefined amount of said fuel; and derive the LHV as a net specific energy using a second-order function of the temperature-adjusted fuel density.
A lithium ion battery anode, comprising a current collector and an anode active material layer on the current collector; characterized in that, the anode active material layer comprises first oriented particles having a first tilt angle θ 1 inclined with respect to a direction of the current collector, and second oriented particles having a second tilt angle θ 2 inclined with respect to the direction of the current collector, wherein the first tilt angle θ 1 and the second tilt angle θ 2 are different and are both not greater than 70°, wherein the first oriented particles meet conditions (a) and (b): (a) 0°<θ 1 ≤20°, 20°<θ 2 <70°; (b) an area of the first oriented particles is 9%-23% of a cross sectional area of the anode active material layer. (a) 0°<θ 1 ≤20°, 20°<θ 2 <70°; (b) an area of the first oriented particles is 9%-23% of a cross sectional area of the anode active material layer.