mhurhangee/ep-ind-claims huggingface dataset:
A method of producing nanoparticles comprising effecting conversion of a nanoparticle precursor composition to the material of the nanoparticles, said precursor composition comprising a first precursor species containing a first ion to be incorporated into the growing nanoparticles and a second precursor species containing a second ion to be incorporated into the growing nanoparticles subject to the proviso that the nanoparticle precursor composition does not contain Cd(CH 3 CO 2) 2 and TOPSe, said conversion being effected in the presence of a molecular cluster compound under conditions permitting seeding and growth of the nanoparticles, wherein the method comprises dispersing the molecular cluster compound and an initial portion of the nanoparticle precursor composition which is less than the total amount of the nanoparticle precursor composition to be used to produce said nanoparticles in a suitable dispersing medium at a first temperature; increasing the temperature of the dispersing medium containing the cluster compound and precursor composition to a second temperature which is sufficient to initiate seeding and growth of the nanoparticles on the molecular clusters of said molecular cluster compound; and adding one or more further portions of the nanoparticle precursor composition to the dispersing medium containing the growing nanoparticles, wherein the temperature of the dispersing medium containing the growing nanoparticles is increased before and/or during the addition of the or each further portion of the nanoparticle precursor composition, subject to the proviso that the temperature of the dispersing medium containing the growing nanoparticles is increased at a rate which is other than 50 °C over a period of 24 hours.
A wireless identification device, comprising: An RFID integrated circuit, and An external circuit, adapted to tune the frequency of wireless transmissions, said external circuit comprising an inductor, a capacitor, a resistor, and a first variable component (203; 223), wherein said first variable component (203; 223) has an open state and a closed state, wherein said state of said first variable component (203; 223) is determined based upon exposure to a first environmental condition and is irreversibly altered by said first environmental condition, characterized in that said external circuit further comprises a second variable component (213; 233), wherein said second variable component (213; 233) has an open state and a closed state, wherein said state of said second variable component (213; 233) is determined based upon exposure to a second environmental condition and is irreversibly altered by said second environmental condition, and wherein said inductor, capacitor, said resistor, said first variable component (203; 223) and said second variable component (213; 233) determine a resonant frequency and bandwidth of said device, wherein said first variable component (203; 223) affects only said bandwidth and said second variable component (213; 233) affects only said bandwidth. An RFID integrated circuit, and An external circuit, adapted to tune the frequency of wireless transmissions, said external circuit comprising an inductor, a capacitor, a resistor, and a first variable component (203; 223), wherein said first variable component (203; 223) has an open state and a closed state, wherein said state of said first variable component (203; 223) is determined based upon exposure to a first environmental condition and is irreversibly altered by said first environmental condition, characterized in that said external circuit further comprises a second variable component (213; 233), wherein said second variable component (213; 233) has an open state and a closed state, wherein said state of said second variable component (213; 233) is determined based upon exposure to a second environmental condition and is irreversibly altered by said second environmental condition, and wherein said inductor, capacitor, said resistor, said first variable component (203; 223) and said second variable component (213; 233) determine a resonant frequency and bandwidth of said device, wherein said first variable component (203; 223) affects only said bandwidth and said second variable component (213; 233) affects only said bandwidth.
A method for determining in-phase and Quadrature, IQ, imbalance parameters in a user equipment, UE,, the method comprising: receiving, in a dual-carrier receiver, a known signal modulated onto a first radio frequency, RF, carrier frequency of a first carrier and a second RF carrier frequency of a second carrier, the second RF carrier frequency being different than the first RF carrier frequency; downconverting, in the dual-carrier receiver, the known signal to a first baseband signal for the first carrier and to a second baseband signal for the second carrier by a first conversion of the known signal from the respective RF carrier frequencies to an intermediate frequency, IF, using a common RF local oscillator, LO, and by a second conversion from the IF to the first and second baseband signals using respective carrier specific IF LOs, wherein a first controllable frequency offset (δ RF) is used as a part of the first conversion and a second controllable frequency offset (δ IF) is used as a part of the second conversion; removing, in the dual-carrier receiver, the first controllable frequency offset (δ RF) and the second controllable frequency offset (δ IF) from the first baseband signal and the second baseband signal to produce respective representations of the received signal of the first and second carriers; deriving, in an IQ imbalance parameter estimator circuit, the IQ imbalance parameters for each representation of the received signal of the first and second carriers using a least square estimate. receiving, in a dual-carrier receiver, a known signal modulated onto a first radio frequency, RF, carrier frequency of a first carrier and a second RF carrier frequency of a second carrier, the second RF carrier frequency being different than the first RF carrier frequency; downconverting, in the dual-carrier receiver, the known signal to a first baseband signal for the first carrier and to a second baseband signal for the second carrier by a first conversion of the known signal from the respective RF carrier frequencies to an intermediate frequency, IF, using a common RF local oscillator, LO, and by a second conversion from the IF to the first and second baseband signals using respective carrier specific IF LOs, wherein a first controllable frequency offset (δ RF) is used as a part of the first conversion and a second controllable frequency offset (δ IF) is used as a part of the second conversion; removing, in the dual-carrier receiver, the first controllable frequency offset (δ RF) and the second controllable frequency offset (δ IF) from the first baseband signal and the second baseband signal to produce respective representations of the received signal of the first and second carriers; deriving, in an IQ imbalance parameter estimator circuit, the IQ imbalance parameters for each representation of the received signal of the first and second carriers using a least square estimate.
Method for the purification of recombinant granulocyte-colony stimulating factor (G-CSF), comprising two cation exchange chromatographies which are, respectively, performed prior and after the hydrophobic interaction chromatography.
A compound of formula: wherein (a) A is N, B is CR 1b, D is CR 1d and E is CR 1e; or (b) B is N, A is CR 1a, D is CR 1d and E is CR 1e; or (c) D is N, A is CR 1a, B is CR 1b and E is CR 1e; or (d) E is N, A is CR 1a, B is CR 1b and D is CR 1d; R 1a, R 1b, R 1d and R 1e are independently selected from H and C 1-4 alkyl; R 2 is H or methyl; Y is selected from R 3, R 4, R 5, R 6 and R 7 independently represent H, halogen, C 1-4 alkyl, C 1-4 alkoxy, cyano, C 1-4 haloalkyl or C 1-4 haloalkoxy, such that at least 1 of R 3, R 4, R 5, R 6 and R 7 is a group other than H; or a pharmaceutically acceptable salt thereof. (a) A is N, B is CR 1b, D is CR 1d and E is CR 1e; or (b) B is N, A is CR 1a, D is CR 1d and E is CR 1e; or (c) D is N, A is CR 1a, B is CR 1b and E is CR 1e; or (d) E is N, A is CR 1a, B is CR 1b and D is CR 1d;
A color conversion panel, comprising: a substrate; at least one color conversion layer (330R, 330G) disposed over the substrate; a planarization layer disposed over and covering the at least one color conversion layer (330R, 330G); a polarization layer disposed over the planarization layer; and an electrode disposed over the polarization layer, wherein the polarization layer comprises a hole through the polarization layer forming an outlet region which enables the discharging of gas generated from at least one color conversion layer (330R, 330G) and/or from organic layers below the polarisation layer, wherein the electrode covers a side surface of the polarization layer in the hole of the outlet region and an upper surface of the planarization layer in the outlet region. a substrate; at least one color conversion layer (330R, 330G) disposed over the substrate; a planarization layer disposed over and covering the at least one color conversion layer (330R, 330G); a polarization layer disposed over the planarization layer; and an electrode disposed over the polarization layer, wherein the polarization layer comprises a hole through the polarization layer forming an outlet region which enables the discharging of gas generated from at least one color conversion layer (330R, 330G) and/or from organic layers below the polarisation layer, wherein the electrode covers a side surface of the polarization layer in the hole of the outlet region and an upper surface of the planarization layer in the outlet region.
Pack, in particular for a cigarette group, comprising an inner pack made of sheet material, which has a removal opening which is closed off by a closure label, preferably usable multiple times, with a grip tab or actuating tab, and having an outer pack in the form of a hinge-lid pack and comprising a box part, a lid, which has a lid inner flap folded against the inner side of a lid front wall, and a collar, which is preferably formed from a separate blank and has a collar front wall and collar side flaps, wherein the collar front wall forms a recess which is open towards the lid or towards an inner end wall of the inner pack and in the region of which is arranged the closure label at least with a limb, in particular a front limb, that bears against an inner front wall of the inner pack, characterized in that the recess extends over the full width of the collar front wall in such a way that the recess is delimited laterally by the collar side flaps, and, as a result of the recess, the entire free surface of the inner front wall above a box front wall is kept free, so that, when the lid is open, it is possible to see only the collar side flaps in the region of the lid side walls.
A decorative sheet comprising: a paper substrate; a printed pattern layer arranged to face a major surface of the paper substrate; and a single-layer or multilayered surface protective layer arranged to face the pattern layer, the surface protective layer comprising a coating layer as an outermost layer of the decorative sheet, the coating layer having a predetermined thickness, the coating layer being comprised of a coating containing antiviral additive particles having a predetermined average particle diameter with one peak at a particle diameter of less than 5 μm and at least one other peak at a particle diameter of 5 μm or more, the antiviral additive particles comprising finely divided silver, characterized in that an amount of the antiviral additive particles in the coating layer is 0.2 mass% or more and 12 mass% or less relative to a total solid content of the coating layer, and the predetermined average particle diameter of the antiviral additive particles and the coating amount of the surface protective layer satisfy the following expression: 0.5 D ≤ φ ≤ 2 D where φ is the predetermined average particle diameter of the antiviral additive particles, and D is the coating amount of the surface protective layer. a paper substrate; a printed pattern layer arranged to face a major surface of the paper substrate; and a single-layer or multilayered surface protective layer arranged to face the pattern layer, the surface protective layer comprising a coating layer as an outermost layer of the decorative sheet, the coating layer having a predetermined thickness, the coating layer being comprised of a coating containing antiviral additive particles having a predetermined average particle diameter with one peak at a particle diameter of less than 5 μm and at least one other peak at a particle diameter of 5 μm or more, the antiviral additive particles comprising finely divided silver, characterized in that an amount of the antiviral additive particles in the coating layer is 0.2 mass% or more and 12 mass% or less relative to a total solid content of the coating layer, and the predetermined average particle diameter of the antiviral additive particles and the coating amount of the surface protective layer satisfy the following expression: 0.5 D ≤ φ ≤ 2 D where φ is the predetermined average particle diameter of the antiviral additive particles, and D is the coating amount of the surface protective layer.
A portable mobile communication device, comprising: - a near field communication circuit comprising a non-volatile memory and a processor interface, the near field communication circuit being configured to execute communication operations via the processor interface dependent on configuration data stored in the non-volatile memory for control of communication dependent on the configuration data, wherein the configuration data comprise information defining one or more handles that identify communication pipes for a communication channel; - a mobile host processor permanently installed in the portable mobile communication device, coupled to said processor interface, the mobile host processor comprising an initialization module configured to - cause a session identity value stored in the non-volatile memory to be tested before using a communication channel via the said processor interface, - trigger set up of at least part of the configuration data for the communication channel if the session identity value does not match a reference value and - cause the session identity value and/or the reference value to be changed so that they match, at least after setting up configuration data, the near field communication circuit and the mobile host processor being configured to proceed with communication without said set up if the session identity value matches the reference value, and after said set up and change if the session identity value does not match the reference value. - a near field communication circuit comprising a non-volatile memory and a processor interface, the near field communication circuit being configured to execute communication operations via the processor interface dependent on configuration data stored in the non-volatile memory for control of communication dependent on the configuration data, wherein the configuration data comprise information defining one or more handles that identify communication pipes for a communication channel; - a mobile host processor permanently installed in the portable mobile communication device, coupled to said processor interface, the mobile host processor comprising an initialization module configured to - cause a session identity value stored in the non-volatile memory to be tested before using a communication channel via the said processor interface, - trigger set up of at least part of the configuration data for the communication channel if the session identity value does not match a reference value and - cause the session identity value and/or the reference value to be changed so that they match, at least after setting up configuration data,
A current-energized synchronous motor, in particular for vehicle drives, comprising a stator and a rotor, the rotor having at least two rotor poles with one energizer winding each, wherein at least one selective magnetic flux barrier, in particular in the form of a radial slot being provided along the main axis of the rotor pole in each rotor pole for increasing the reluctance moment of the synchronous motor, and wherein a permanent magnet which saturates mechanical bridges in the flux barrier and thus extends the effect of the flux barrier to the total region of the longitudinal axis of the rotor pole is arranged in the rotor pole at least in a section of the slot acting as a flux barrier, characterized in that the direction of magnetization of said permanent magnet is tangential with respect to the direction of rotation of said motor.
A vaccine comprising an IgM protease antigen of Streptococcus suis, for use in a method for protecting piglets having maternally derived anti -Streptococcus suis antibodies against Streptococcus suis, by administering the vaccine to the piglets at an age of at most 28 days.
A method for solar forecasting, comprising the steps of: receiving a time series of solar energy data values as a function of time of day at a first time t; forecasting from the solar energy data a mode of day represented by the solar energy data, wherein the mode of day is one of a sunny day, a cloudy day, or an overcast day, and the forecast predicts the mode of day for a next solar energy datum; the method being characterized in that it further comprises the steps of: receiving the next solar energy datum, and updating a probability distribution function (pdf) of the next solar energy datum given the mode of day; updating a pdf of the mode of day for the next solar energy datum from the updated pdf of the new solar energy datum given the mode of day; forecasting a plurality of future unobserved solar energy data values from the updated pdf of the mode of day, wherein the plurality of future unobserved solar energy data values y t and the time series of solar energy data values x t have a Gaussian probability distribution for a given mode of day s t = k determined from a set of training data. receiving a time series of solar energy data values as a function of time of day at a first time t; forecasting from the solar energy data a mode of day represented by the solar energy data, wherein the mode of day is one of a sunny day, a cloudy day, or an overcast day, and the forecast predicts the mode of day for a next solar energy datum; the method being characterized in that it further comprises the steps of: receiving the next solar energy datum, and updating a probability distribution function (pdf) of the next solar energy datum given the mode of day; updating a pdf of the mode of day for the next solar energy datum from the updated pdf of the new solar energy datum given the mode of day; forecasting a plurality of future unobserved solar energy data values from the updated pdf of the mode of day, wherein the plurality of future unobserved solar energy data values y t and the time series of solar energy data values x t have a Gaussian probability distribution for a given mode of day s t = k determined from a set of training data. receiving the next solar energy datum, and updating a probability distribution function (pdf) of the next solar energy datum given the mode of day; updating a pdf of the mode of day for the next solar energy datum from the updated pdf of the new solar energy datum given the mode of day; forecasting a plurality of future unobserved solar energy data values from the updated pdf of the mode of day, wherein the plurality of future unobserved solar energy data values y t and the time series of solar energy data values x t have a Gaussian probability distribution for a given mode of day s t = k determined from a set of training data.
A compound for use in labeling a protease having the formula: wherein D is a fluorescent label, wherein the fluorescent label is a fluorescein, an Oregon green, a bora-diaza-indecene, a rhodamine, or a cyanine label; L 3 is a linker; and Q is a quencher, wherein the quencher is a chemical entity that modulates the emission of a fluorophore. Oregon green, a bora-diaza-indecene, a rhodamine, or a cyanine label; L 3 is a linker; and Q is a quencher, wherein the quencher is a chemical entity that modulates the emission of a fluorophore.
A position detecting device including a sensor having an electrode pattern formed of a plurality of first electrodes (Y1-Y40) arranged in a first direction and a plurality of second electrodes (X1-X40) arranged in a second direction intersecting with the first direction, the position detecting device supplying a drive signal to the first electrodes (Y1-Y40) and detecting a position of an indicator on the electrode pattern from a reception signal obtained from the second electrodes, the position detecting device comprising: a first selection circuit configured to select two sets of the second electrodes (XA2, XA4), which are separate from each other by a distance equivalent to a second predetermined number of electrodes, from the plurality of second electrodes (X1-X40); a second selection circuit configured to select two sets of the first electrodes (YA3, YA5), which are separate from each other by a distance equivalent to a first predetermined number of electrodes, from the plurality of first electrodes (Y1-Y40); a drive signal supply circuit configured to supply the drive signals to each of the two sets (YA3, YA5), of the first electrodes selected by the second selection circuit and to output two signals having phases inverted from each other (ASc, ASc!); a differential amplifier circuit having a non-inverting input terminal (+), to which one set of the two sets of the second electrodes selected by the first selection circuit is connected, and an inverting input terminal (-), to which the other set of the two sets of the second electrodes is connected; and a detection circuit configured to detect the position of the indicator on the electrode pattern from an output signal of the differential amplifier circuit. a first selection circuit configured to select two sets of the second electrodes (XA2, XA4), which are separate from each other by a distance equivalent to a second predetermined number of electrodes, from the plurality of second electrodes (X1-X40); a second selection circuit configured to select two sets of the first electrodes (YA3, YA5), which are separate from each other by a distance equivalent to a first predetermined number of electrodes, from the plurality of first electrodes (Y1-Y40); a drive signal supply circuit configured to supply the drive signals to each of the two sets (YA3, YA5), of the first electrodes selected by the second selection circuit and to output two signals having phases inverted from each other (ASc, ASc!); a differential amplifier circuit having a non-inverting input terminal (+), to which one set of the two sets of the second electrodes selected by the first selection circuit is connected, and an inverting input terminal (-), to which the other set of the two sets of the second electrodes is connected; and a detection circuit configured to detect the position of the indicator on the electrode pattern from an output signal of the differential amplifier circuit.