mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting an analyte in a sample, comprising: (a) contacting said sample with at least one set of at least first and second proximity probes, which probes each comprise an analyte-binding domain and a nucleic acid domain and can simultaneously bind to the analyte; (b) allowing the nucleic acid domains of the proximity probes to interact with each other upon binding of said proximity probes to said analyte, wherein said interaction comprises the formation of a duplex; (c) contacting said sample with a 3' exonuclease enzyme, wherein said 3' exonuclease enzyme is not a polymerase enzyme or a part thereof and is able to degrade nucleic acid domains which have not interacted to form a duplex and which have a free and unprotected 3' end; (d) extending the 3' end of at least one nucleic acid domain of said duplex using a polymerase to generate an extension product, wherein the step may occur contemporaneously with or after step (c), wherein the 3' exonuclease enzyme used in step (c) is separate and independent from a polymerase enzyme; and (e) amplifying and detecting the extension product. (a) contacting said sample with at least one set of at least first and second proximity probes, which probes each comprise an analyte-binding domain and a nucleic acid domain and can simultaneously bind to the analyte; (b) allowing the nucleic acid domains of the proximity probes to interact with each other upon binding of said proximity probes to said analyte, wherein said interaction comprises the formation of a duplex; (c) contacting said sample with a 3' exonuclease enzyme, wherein said 3' exonuclease enzyme is not a polymerase enzyme or a part thereof and is able to degrade nucleic acid domains which have not interacted to form a duplex and which have a free and unprotected 3' end; (d) extending the 3' end of at least one nucleic acid domain of said duplex using a polymerase to generate an extension product, wherein the step may occur contemporaneously with or after step (c), wherein the 3' exonuclease enzyme used in step (c) is separate and independent from a polymerase enzyme; and (e) amplifying and detecting the extension product.
A cartridge device for use in a stereolithography apparatus , which cartridge device has an interior enclosed by a sleeve , the sleeve of the cartridge device being deformable, the interior having a volume which remains substantially constant during deformation of the sleeve and which is at least partially formed by a receiving space , in which a quantity of a photosensitive substance is receivable for at least a period of time of a radiation and curing process and is accessible to radiation which triggers curing of the photosensitive substance, the sleeve having a base, an upper part and a jacket connecting the base and upper part, and the base of the sleeve and/or the jacket having at least one perforatable, weakened area, for forming at least one opening for the supply or discharge of a photosensitive substance and/or the supply or discharge of solvent to or from the interior.
A tele-lens comprising: a first prism lens (P9) comprising a convex incident surface and a flat output surface, configured to change a light path of light which is incident from an object side along a first optical axis, from the first optical axis to a second optical axis, said first prism (P9) lens having a positive refractive index; an optical element (P10) configured to change the light path from the second optical axis to a third optical axis, wherein an output surface of the optical element is arranged to face the object side, a lens unit (GL) comprising a plurality of lenses, said lens unit being arranged between the first prism lens (P9) and the optical element(P10), and being arranged on the second optical axis; and wherein the tele-lens is fixed with respect to the second optical axis, and the entire tele-lens is configured to move along the first optical axis during focusing, wherein the tele-lens satisfies the following condition: 0.9 < TTL/EFL < 1.5, where EFL is an effective focusing distance of the tele-lens and TTL is an entire length of the tele-lens; wherein the plurality of lenses of the lens unit (GL) are arranged in order from the object side to an upper surface of the tele-lens and comprise a first lens (L8) having convex incident and output surfaces, a second lens (L9) having concave incident and output surfaces, and a third lens having convex incident and output surfaces. a first prism lens (P9) comprising a convex incident surface and a flat output surface, configured to change a light path of light which is incident from an object side along a first optical axis, from the first optical axis to a second optical axis, said first prism (P9) lens having a positive refractive index; an optical element (P10) configured to change the light path from the second optical axis to a third optical axis, wherein an output surface of the optical element is arranged to face the object side, a lens unit (GL) comprising a plurality of lenses, said lens unit being arranged between the first prism lens (P9) and the optical element(P10), and being arranged on the second optical axis; and wherein the tele-lens is fixed with respect to the second optical axis, and the entire tele-lens is configured to move along the first optical axis during focusing, wherein the tele-lens satisfies the following condition: 0.9 < TTL/EFL < 1.5, where EFL is an effective focusing distance of the tele-lens and TTL is an entire length of the tele-lens; wherein the tele-lens is fixed with respect to the second optical axis, and the entire tele-lens is configured to move along the first optical axis during focusing, wherein the tele-lens satisfies the following condition: 0.9 < TTL/EFL < 1.5, where EFL is an effective focusing distance of the tele-lens and TTL is an entire length of the tele-lens; wherein the plurality of lenses of the lens unit (GL) are arranged in order from the object side to an upper surface of the tele-lens and comprise a first lens (L8) having convex incident and output surfaces, a second lens (L9) having concave incident and output surfaces, and a third lens having convex incident and output surfaces.
Composition comprising at least 3"-tert-butyl-4'-(2-hydroxy-ethoxy)-4"-pyrrolidin-1-yl-[1,1';3',1"]-terphenyl-4-carboxylic acid as an active ingredient, characterized in that : - said composition is an oil-in-water emulsion formed of oily liquid globules each provided with a lamellar liquid crystal coating and dispersed in an aqueous phase - said retinoid is dissolved inside the oily liquid globules, - each oily liquid globule is individually coated with a monolamellar or oligolamellar layer obtained from: - at least one lipophilic surfactant, - at least one hydrophilic surfactant having an HLB of between 8 and 12 and - at least one different anionic surfactant, - the coated oily liquid globules have an average diameter of less than 800 nm; the size of the oily globules being determined by DLS (Dynamic Light Scattering) after diluting the samples in distilled water, - the oily liquid globules comprise at least phenoxyethanol as oily solvent. - said composition is an oil-in-water emulsion formed of oily liquid globules each provided with a lamellar liquid crystal coating and dispersed in an aqueous phase - said retinoid is dissolved inside the oily liquid globules, - each oily liquid globule is individually coated with a monolamellar or oligolamellar layer obtained from: - at least one lipophilic surfactant, - at least one hydrophilic surfactant having an HLB of between 8 and 12 and - at least one different anionic surfactant, - at least one lipophilic surfactant, - at least one hydrophilic surfactant having an HLB of between 8 and 12 and - at least one different anionic surfactant, - the coated oily liquid globules have an average diameter of less than 800 nm; the size of the oily globules being determined by DLS (Dynamic Light Scattering) after diluting the samples in distilled water, - the oily liquid globules comprise at least phenoxyethanol as oily solvent.
Composite composed of a polymer matrix and continuous fibres embedded therein, where the polymer matrix consists to an extent of at least 80% by weight of a mixture comprising the following components: a) low-viscosity PVDF as the main component, i.e. to an extent of at least 50 parts by weight, and b) 1 to 50 parts by weight of an acrylate copolymer, where the acrylate copolymer contains 1% to 30% by weight of units having carboxylic anhydride groups, where the sum total of the parts by weight of a) and b) is 100, and where the proportion by volume of the continuous fibres in the composite is also 10% to 80% by weight, where the percentages of the matrix and of the continuous fibres are each based on the total mass or total volume of the reinforcing ply. a) low-viscosity PVDF as the main component, i.e. to an extent of at least 50 parts by weight, and b) 1 to 50 parts by weight of an acrylate copolymer, where the acrylate copolymer contains 1% to 30% by weight of units having carboxylic anhydride groups, where the sum total of the parts by weight of a) and b) is 100, and
An integrated circuit to drive a plurality of fluid actuation devices, the integrated circuit comprising: a configuration register ; a plurality of interfaces comprising a mode interface and a data interface ; and control logic to enable writing to the configuration register in response to a signal on the mode interface transitioning to logic high with a logic high signal on the data interface , wherein the configuration register is to receive serial data from the data interface with the configuration register enabled for writing. a configuration register ; a plurality of interfaces comprising a mode interface and a data interface ; and control logic to enable writing to the configuration register in response to a signal on the mode interface transitioning to logic high with a logic high signal on the data interface , wherein the configuration register is to receive serial data from the data interface with the configuration register enabled for writing.
A brake control unit configured to drive a brake actuator with a drive signal (Do) in response to an external brake control signal (I B ), the brake control unit comprising a primary control branch and a secondary control branch , the brake control unit being configured to assume an operational mode selected from at least a first, normal operational mode and at least a second operational mode, dependent on a diagnostic state indication (S INT ), characterised in that the primary control branch comprises a primary inverter that is configured to provide the drive signals (D 10 ) to the brake actuator in the normal operational mode, a primary control module to control operation of the primary inverter and a primary EMI-filter to mitigate noise originating from the primary inverter and the brake actuator, the primary EMI-filter having inputs for receiving electric power from a power source and outputs for providing electric power to the primary inverter; wherein the secondary control branch comprises a secondary inverter configured to provide the drive signals to the brake actuator in the at least a second operational mode, a secondary control module to control operation of the secondary inverter and a secondary EMI-filter to mitigate noise originating from the second inverter and the brake actuator, the secondary EMI-filter having inputs for receiving electric power from the power source and outputs for providing electric power to the secondary inverter; wherein during the first, normal operational mode, both the primary EMI-filter and the secondary EMI-filter are coupled with their input to the power source. characterised in that the primary control branch comprises a primary inverter that is configured to provide the drive signals (D 10 ) to the brake actuator in the normal operational mode, a primary control module to control operation of the primary inverter and a primary EMI-filter to mitigate noise originating from the primary inverter and the brake actuator, the primary EMI-filter having inputs for receiving electric power from a power source and outputs for providing electric power to the primary inverter; wherein the secondary control branch comprises a secondary inverter configured to provide the drive signals to the brake actuator in the at least a second operational mode, a secondary control module to control operation of the secondary inverter and a secondary EMI-filter to mitigate noise originating from the second inverter and the brake actuator, the secondary EMI-filter having inputs for receiving electric power from the power source and outputs for providing electric power to the secondary inverter; wherein during the first, normal operational mode, both the primary EMI-filter and the secondary EMI-filter are coupled with their input to the power source.
An image display apparatus comprising: a display ; a memory configured to store instructions; and a processor configured to execute the instructions to: process a plurality of images taken at 360-degree to obtain a 360-degree image, control the display to display, as a main view, an image of a first area of the 360-degree image that corresponds to an angle of view determined according to a user input, detect at least one object in at least one area of the 360-degree image other than the first area using meta information corresponding to the 360-degree image, wherein the meta information comprises an object identifier for identifying an object, time information indicating one or more time points or one or more frames during which the object appears in the 360-degree image, and angle of view information indicating an angle of view in which the object appears in the 360-degree image, and control the display to display, as at least one sub-view, an image of a second area of the 360-degree image that corresponds to an angle of view of the at least one detected object. a display ; a memory configured to store instructions; and a processor configured to execute the instructions to: process a plurality of images taken at 360-degree to obtain a 360-degree image, control the display to display, as a main view, an image of a first area of the 360-degree image that corresponds to an angle of view determined according to a user input, detect at least one object in at least one area of the 360-degree image other than the first area using meta information corresponding to the 360-degree image, wherein the meta information comprises an object identifier for identifying an object, time information indicating one or more time points or one or more frames during which the object appears in the 360-degree image, and angle of view information indicating an angle of view in which the object appears in the 360-degree image, and control the display to display, as at least one sub-view, an image of a second area of the 360-degree image that corresponds to an angle of view of the at least one detected object. process a plurality of images taken at 360-degree to obtain a 360-degree image, control the display to display, as a main view, an image of a first area of the 360-degree image that corresponds to an angle of view determined according to a user input, detect at least one object in at least one area of the 360-degree image other than the first area using meta information corresponding to the 360-degree image, wherein the meta information comprises an object identifier for identifying an object, time information indicating one or more time points or one or more frames during which the object appears in the 360-degree image, and angle of view information indicating an angle of view in which the object appears in the 360-degree image, and control the display to display, as at least one sub-view, an image of a second area of the 360-degree image that corresponds to an angle of view of the at least one detected object.
A method for characterising at least one sample, comprising: a) illuminating said or each sample to be analysed with N≥1 light rays (LE 1 - LE 3 ) at respective wavelengths of light (λE 1 - λE 3 ); b) acquiring, for each said light ray, of at least one fluorescent light intensity and at least one elastic scattering light intensity emitted by said or each sample; c) for said or each sample, determining a vector indicator from said fluorescence and elastic scattering light intensities; d) determining at least one scalar or vector parameter characterising each sample, or a method to which said sample has been subjected, from the corresponding vector indicator, the method being characterised in that said step b) comprises, for said or each sample, the acquisition of at least one fluorescence spectrum and in that said step c) comprises, also for said or each sample: - calculating a vector of scores by applying a multivariate or multipath statistical model to said or each fluorescence spectrum, said statistical model being defined by a vector of illumination loadings and by a vector of fluorescence loadings; and - concatenating said vector of scores with at least one elastic scattering intensity value or characteristic parameter of at least one elastic scattering spectrum, thereby obtaining said vector indicator. a) illuminating said or each sample to be analysed with N≥1 light rays (LE 1 - LE 3 ) at respective wavelengths of light (λE 1 - λE 3 ); b) acquiring, for each said light ray, of at least one fluorescent light intensity and at least one elastic scattering light intensity emitted by said or each sample; c) for said or each sample, determining a vector indicator from said fluorescence and elastic scattering light intensities; d) determining at least one scalar or vector parameter characterising each sample, or a method to which said sample has been subjected, from the corresponding vector indicator, the method being characterised in that said step b) comprises, for said or each sample, the acquisition of at least one fluorescence spectrum and in that said step c) comprises, also for said or each sample: - calculating a vector of scores by applying a multivariate or multipath statistical model to said or each fluorescence spectrum, said statistical model being defined by a vector of illumination loadings and by a vector of fluorescence loadings; and - concatenating said vector of scores with at least one elastic scattering intensity value or characteristic parameter of at least one elastic scattering spectrum, thereby obtaining said vector indicator. - calculating a vector of scores by applying a multivariate or multipath statistical model to said or each fluorescence spectrum, said statistical model being defined by a vector of illumination loadings and by a vector of fluorescence loadings; and - concatenating said vector of scores with at least one elastic scattering intensity value or characteristic parameter of at least one elastic scattering spectrum, thereby obtaining said vector indicator.
Roof covering element comprising a flat main part , the upper face of which has a receiving surface for a solar module and which has an opening or a bore running perpendicularly to the main surface thereof, through which opening or bore at least two electrical lines are guided together, the lines ending on the upper face of the main part in the region of the receiving surface as contact means which are held or axially movably guided in a common flat connection socket , characterized in that the electrical lines (5, 5', 5"', 6, 6', 6′′′) are guided in a common plug-in socket from the lower face through the opening or the bore, the plug-in socket being held in an interlocking manner on the lower face of the main part in the axial plug-in direction by a plug-in flange and being held in an interlocking and/or force-fitting manner on the upper face of the main part against its axial plug-in direction by a locking means and forming the connection socket on the upper face of the main part .
A method for operating a pair of multi-tone transceivers coupled to one another across a communication medium, and the method comprising: dedicating a fixed subset of tones in each successive symbol to at least one robust communication channel, RCC, and remaining tones to a standard communication channel, SCC, assigning a first noise margin target for data transported on the first set of tones dedicated to the RCC and a second noise margin target lower than the first noise margin for data transported on the remaining tones dedicated to the SCC; and transmitting RCC and SCC tone dedication information and target first and second noise margins to an opposing one of the pair of transceivers. dedicating a fixed subset of tones in each successive symbol to at least one robust communication channel, RCC, and remaining tones to a standard communication channel, SCC, assigning a first noise margin target for data transported on the first set of tones dedicated to the RCC and a second noise margin target lower than the first noise margin for data transported on the remaining tones dedicated to the SCC; and transmitting RCC and SCC tone dedication information and target first and second noise margins to an opposing one of the pair of transceivers.
A registration method for a virtual optical network unit, ONU, comprising: receiving, by N virtual ONUs in a serial number, SN, state, an SN request sent by an optical line terminal, OLT; wherein N is a natural number greater than or equal to 2 ; sending, by each virtual ONU, an SN response to the OLT to enable the OLT to register each virtual ONU according to each SN response ; wherein sending, by each virtual ONU, the SN response to the OLT , comprises: calculating, by each virtual ONU, a sending time corresponding to each SN response ; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response ; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1. receiving, by N virtual ONUs in a serial number, SN, state, an SN request sent by an optical line terminal, OLT; wherein N is a natural number greater than or equal to 2 ; sending, by each virtual ONU, an SN response to the OLT to enable the OLT to register each virtual ONU according to each SN response ; wherein sending, by each virtual ONU, the SN response to the OLT , comprises: calculating, by each virtual ONU, a sending time corresponding to each SN response ; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response ; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1. calculating, by each virtual ONU, a sending time corresponding to each SN response ; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response ; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1.