mhurhangee/patent-ind-claim-en huggingface dataset:
A mass spectrometer including an ion source using pulsed extraction for generating pre-cursor ions from a sample, wherein said pre-cursor ions have an initial axial distribution in the direction normal to the sample surface, the initial axial distribution comprising an initial axial spatial distribution and an initial axial velocity distribution, wherein the pulsed extraction focuses the precursor ions to produce a space focus for the initial axial velocity distribution, ion fragmentation means for generating fragment ions from the pre-cursor ions, a curved-field reflectron for focusing the kinetic energy distribution of the fragment ions, and an ion detector, characterised in that the mass spectrometer also includes an initial axial spatial distribution focusing means which in use acts on the ions after the ion fragmentation means and before the curved-field reflectron, the initial axial spatial distribution focusing means being operable to produce a pulsed axial electrostatic field; a control means to coordinate the operation of the pulsed axial electrostatic field with the generation of the pre-cursor ions; whereby the electrostatic potential (A) decreases away from the ion source in an axial direction, or (B) increases away from the ion source in an axial direction, the axial electrostatic field being operable to reduce the said initial axial spatial distribution of the ions by accelerating or decelerating the ions in the direction of the ion optical axis of the spectrometer thereby causing the ions to bunch together and acquire an additional velocity distribution that corresponds to the initial axial spatial distribution.
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and a diol compound chosen from 1,3-propanediol, 1,2-octanediol and 1,2-decanediol, and when the diol is 1,3-propanediol, it is present in a 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one/1,3-propanediol weight ratio ranging from 0.02 to 0.15.
An eye tracking method comprising: determining whether a reflection area generated by an illumination is included in an input image ; in response to determining that the reflection area is included in the input image, removing the reflection area from the input image; and outputting coordinates corresponding to an eye of a user from the input image in which the reflection area is removed; characterised in that removing the reflection area from the input image comprises processing the input image including the reflection area through machine learning based on a database including an image in which a reflection area is removed and further including images obtained by inversely transforming high illumination images into low-illumination images. determining whether a reflection area generated by an illumination is included in an input image ; in response to determining that the reflection area is included in the input image, removing the reflection area from the input image; and outputting coordinates corresponding to an eye of a user from the input image in which the reflection area is removed;
Device for distributed sensing comprising: - A pump generator arranged for generating an optical pump signal , - An optical pump splitter configured to receive the pump signal and split the pump signal in a number N of channels , each channel comprising an optical fiber or a connector arranged for connecting an optical fiber , N being an integer greater than or equal to 2, - A controller configured to control the pump splitter , - An optical receiver arranged for receiving a backscattered signal from the optical fiber or from the connector of each channel, characterized in that : - The optical pump splitter comprises a gating system comprising a gate for each channel among the N channels, each gate associated to a given channel being arranged for having: ∘ an open state allowing the pump signal to go from the pump generator to the optical fiber or the connector of the associated channel, and ∘ a closed state for which the pump signal cannot go from the pump generator to the optical fiber or the connector of the associated channel. - A pump generator arranged for generating an optical pump signal , - An optical pump splitter configured to receive the pump signal and split the pump signal in a number N of channels , each channel comprising an optical fiber or a connector arranged for connecting an optical fiber , N being an integer greater than or equal to 2, - A controller configured to control the pump splitter , - An optical receiver arranged for receiving a backscattered signal from the optical fiber or from the connector of each channel, - The optical pump splitter comprises a gating system comprising a gate for each channel among the N channels, each gate associated to a given channel being arranged for having: ∘ an open state allowing the pump signal to go from the pump generator to the optical fiber or the connector of the associated channel, and ∘ a closed state for which the pump signal cannot go from the pump generator to the optical fiber or the connector of the associated channel. ∘ an open state allowing the pump signal to go from the pump generator to the optical fiber or the connector of the associated channel, and ∘ a closed state for which the pump signal cannot go from the pump generator to the optical fiber or the connector of the associated channel.
A primary filter and storage system, comprising a power source, a water pump, a filter device and a control circuit, said system further comprising an ultraviolet sterilization device and a water storage device, wherein an inlet of the filter device is connected with a water source, and an outlet of the filter device is connected with the ultraviolet sterilization device; an outlet of the ultraviolet sterilization device is connected with the water storage device, the primary filter and storage system being characterized in that the filter device comprises a fiber mesh filter, a PP cotton filter, a quartz sand filter, a particle carbon filter and an active carbon filter, wherein the fiber mesh filter, the PP cotton filter, the quartz sand filter, the particle carbon filter and the active carbon filter are sequentially connected in series, the fiber mesh filter is connected with the water source through the water pump, and an outlet of the active carbon filter is connected with the ultraviolet sterilization device.
A bicycle set comprising a bicycle fitting and a handlebar stem having two mutually spaced handlebar stem arms , wherein each handlebar stem arm has a free end with a handlebar clamp and a handlebar can be fixed with the handlebar clamps , wherein the bicycle fitting has a fixing portion for fixing the bicycle fitting to a handlebar and a first leg portion having two ends , wherein one end of the first leg portion is connected to the fixing portion and the first leg portion has a display and/or operating element , wherein a first end of a second leg portion of the bicycle fitting is connected to the fixing portion and the second leg portion has a lighting device , wherein the handlebar clamps and the fixing portion of the bicycle fitting can be fixed to a handlebar in such a way that the first leg portion is arranged at least partially between the handlebar stem arms , characterised in that the display and/or operating element is part of a bicycle computer.
A compound represented by Chemical Formula 1 below: in Chemical Formula 1, X 1 is O or S; two of R 1 to R 4 are hydrogen, and the rest are Ar 1 which differ from each other; Ar 1 is each independently -L-Ar 2 ; L is each independently a direct bond, or substituted or unsubstituted C 6-60 arylene; and Ar 2 is each independently selected from the following: wherein R 5 is each independently hydrogen, phenyl, biphenylyl, naphthyl, or dibenzofuranyl. X 1 is O or S; two of R 1 to R 4 are hydrogen, and the rest are Ar 1 which differ from each other; Ar 1 is each independently -L-Ar 2 ; L is each independently a direct bond, or substituted or unsubstituted C 6-60 arylene; and Ar 2 is each independently selected from the following: wherein R 5 is each independently hydrogen, phenyl, biphenylyl, naphthyl, or dibenzofuranyl.
A method of manufacturing a sanitised paper envelope comprising the steps: supplying a paper sheet having a first surface and a second surface to a flexographic printing apparatus having a first sanitising module ; applying a sanitising solution to at least the first surface of the paper sheet using the first sanitising module , and forming an envelope from the sanitised paper sheet . supplying a paper sheet having a first surface and a second surface to a flexographic printing apparatus having a first sanitising module ; applying a sanitising solution to at least the first surface of the paper sheet using the first sanitising module , and forming an envelope from the sanitised paper sheet .
A data transmission method, comprising: determining , by user equipment, a logical channel used for to-be-transmitted D2D data; determining , by the user equipment, a logical channel group corresponding to the logical channel; reporting , by the user equipment, a D2D data volume of the user equipment that is in the logical channel group to a network device; and sending , by the user equipment, on a D2D resource that is allocated by the network device to the user equipment according to the D2D data volume, the to-be-transmitted D2D data to another user equipment by using the determined logical channel. determining , by user equipment, a logical channel used for to-be-transmitted D2D data; determining , by the user equipment, a logical channel group corresponding to the logical channel; reporting , by the user equipment, a D2D data volume of the user equipment that is in the logical channel group to a network device; and sending , by the user equipment, on a D2D resource that is allocated by the network device to the user equipment according to the D2D data volume, the to-be-transmitted D2D data to another user equipment by using the determined logical channel.
Method for printing at least one conductive track on the surface of an object , the method implementing at least one arm robot having several degrees of freedom and at least one conductive ink printhead , at least one part of the object being disposed in a working space of said at least one robot , the method comprising the following steps: - Performing a 3D scan of at least one part of the surface of the object using a scanner mounted on an arm of the robot which ensures its movement relative to the object , - Building , from a performed 3D scan , a digital model of the scanned part of the surface of the object using CAD software, - Digitally drawing a conductive track on the digital model previously built using CAD software, - Generating , according to the drawing of the conductive track , a trajectory for the printhead using the CAD software, and - Printing said at least one conductive track using the printhead mounted on an arm of the robot which ensures its movement relative to the object by following the previously generated trajectory . - Performing a 3D scan of at least one part of the surface of the object using a scanner mounted on an arm of the robot which ensures its movement relative to the object , - Building , from a performed 3D scan , a digital model of the scanned part of the surface of the object using CAD software, - Digitally drawing a conductive track on the digital model previously built using CAD software, - Generating , according to the drawing of the conductive track , a trajectory for the printhead using the CAD software, and - Printing said at least one conductive track using the printhead mounted on an arm of the robot which ensures its movement relative to the object by following the previously generated trajectory .
A controller , comprising: a control operation unit configured to cyclically perform a control operation for controlling a control target; a data generator configured to generate data showing a chronological change in a value associated with the control target; and an analyzer configured to analyze the data generated by the data generator and output an analysis result in a predetermined analysis target period (T 0 ), the analysis target period including a plurality of sections (t1, t2, t3), wherein the data generator is configured to sequentially output section data showing a chronological change in a value for each of the plurality of sections (t1, t2, t3) included in the analysis target period (T 0 ), the analyzer is configured to analyze the sequentially output section data for each section, and when an analysis of section data for a section (t3) included in the analysis target period (T 0 )shows a predefined result, the analyzer is configured to eliminate an analysis of section data for one or more sections (t1, t2, t3) in the analysis target period (T 0 )that are subsequent to the section (t3) for which the analysis shows the predefined result. a control operation unit configured to cyclically perform a control operation for controlling a control target; a data generator configured to generate data showing a chronological change in a value associated with the control target; and an analyzer configured to analyze the data generated by the data generator and output an analysis result in a predetermined analysis target period (T 0 ), the analysis target period including a plurality of sections (t1, t2, t3), wherein the data generator is configured to sequentially output section data showing a chronological change in a value for each of the plurality of sections (t1, t2, t3) included in the analysis target period (T 0 ), the analyzer is configured to analyze the sequentially output section data for each section, and when an analysis of section data for a section (t3) included in the analysis target period (T 0 )shows a predefined result, the analyzer is configured to eliminate an analysis of section data for one or more sections (t1, t2, t3) in the analysis target period (T 0 )that are subsequent to the section (t3) for which the analysis shows the predefined result.
System comprising a floor drain and a fire protection insert without barrier water for the floor drain , wherein the fire protection insert has an insert element with a main body and holding arms extending outwardly from the main body , wherein the fire protection insert is inserted into the floor drain so that the main body is held centrally in the floor drain at a distance from an inner wall of the floor drain via the holding arms , so that, in case of fire, an intumescent arranged in the main body evenly foams up from the inside to the outside, starting from the center of the floor drain , and closes the floor drain .
An image acquisition device for acquiring an image of an observation target (S) by radiating structured illumination light, the image acquisition device comprising: a light source for outputting light (L1); a spatial light modulator having a plurality of pixels two-dimensionally arranged and for modulating a phase of the light (L1) output from the light source for each of the plurality of pixels; an objective lens for radiating the modulated light to the observation target (S); a first optical system including a lens for focusing a illumination light (L1) from the spatial light modulator on the pupil of the objective lens ; a photodetector for capturing an image of the light (L1) from the observation target (S); and a control unit for controlling an amount of phase modulation for each of the plurality of pixels in accordance with a phase pattern (P) in which phase values corresponding to the plurality of pixels are two-dimensionally distributed, wherein the phase pattern (P) is a phase pattern generated based on a predetermined basic phase pattern , wherein the basic phase pattern (31A-31J) includes a first region (32A-32J) in which the phase value continuously increases in a predetermined direction (D1) and a second region (33A-33J) in which the phase value continuously decreases in the predetermined direction (D1) and facing the first region (32A-32J) in the predetermined direction (D1), and the basic phase pattern further includes a third region (34E-34J) in which the phase value is constant such that stripe-like illumination light (L1) in which gaps are formed at regular intervals on the stripes is generated. a light source for outputting light (L1); a spatial light modulator having a plurality of pixels two-dimensionally arranged and for modulating a phase of the light (L1) output from the light source for each of the plurality of pixels; an objective lens for radiating the modulated light to the observation target (S); a first optical system including a lens for focusing a illumination light (L1) from the spatial light modulator on the pupil of the objective lens ; a photodetector for capturing an image of the light (L1) from the observation target (S); and a control unit for controlling an amount of phase modulation for each of the plurality of pixels in accordance with a phase pattern (P) in which phase values corresponding to the plurality of pixels are two-dimensionally distributed, wherein the phase pattern (P) is a phase pattern generated based on a predetermined basic phase pattern , wherein the basic phase pattern (31A-31J) includes a first region (32A-32J) in which the phase value continuously increases in a predetermined direction (D1) and a second region (33A-33J) in which the phase value continuously decreases in the predetermined direction (D1) and facing the first region (32A-32J) in the predetermined direction (D1), and the basic phase pattern further includes a third region (34E-34J) in which the phase value is constant such that stripe-like illumination light (L1) in which gaps are formed at regular intervals on the stripes is generated.
A computer-implemented method for processing blockchain data in a trusted execution environment, TEE, executing on a computing device communicably coupled to a blockchain network, the method comprising: receiving a request from a blockchain node of the blockchain network to execute one or more software instructions in the TEE; determining one or more blocks that are infrequently accessed for executing the one or more software instructions, wherein block data associated with the one or more blocks are retrievable to execute a smart contract, and wherein the one or more blocks are stored on the blockchain node and are appended to a blockchain; performing error correction coding of the one or more blocks only in the TEE associated with a trusted node to generate one or more encoded blocks, wherein the one or more encoded blocks are verifiable by the other nodes of the blockchain network; dividing each of the one or more encoded blocks to a plurality of datasets based on the one or more software instructions; and sending the plurality of datasets and a data storage arrangement to the blockchain nodes of the blockchain network based on the one or more software instructions, wherein the data storage arrangement indicates at least one of the plurality of datasets to be stored by each of the blockchain nodes. receiving a request from a blockchain node of the blockchain network to execute one or more software instructions in the TEE; determining one or more blocks that are infrequently accessed for executing the one or more software instructions, wherein block data associated with the one or more blocks are retrievable to execute a smart contract, and wherein the one or more blocks are stored on the blockchain node and are appended to a blockchain; performing error correction coding of the one or more blocks only in the TEE associated with a trusted node to generate one or more encoded blocks, wherein the one or more encoded blocks are verifiable by the other nodes of the blockchain network; dividing each of the one or more encoded blocks to a plurality of datasets based on the one or more software instructions; and sending the plurality of datasets and a data storage arrangement to the blockchain nodes of the blockchain network based on the one or more software instructions, wherein the data storage arrangement indicates at least one of the plurality of datasets to be stored by each of the blockchain nodes.
A system for providing a therapeutic treatment to a mammal for a selected mammalian condition comprising: a wearable member configured for use about an upper torso of a mammal; and an energy module configured to generate energy comprising vibration energy and audio to provide a stimulation that is a therapeutically effective treatment for the selected mammalian condition, said energy module adapted to be supported by said wearable member about the upper torso of the mammal, wherein said wearable member includes a therapy delivery portion configured to position said energy module at a treatment site about the upper torso, and characterized in that the treatment site is positioned on top of the neck and along the spine of the mammal. a wearable member configured for use about an upper torso of a mammal; and an energy module configured to generate energy comprising vibration energy and audio to provide a stimulation that is a therapeutically effective treatment for the selected mammalian condition, said energy module adapted to be supported by said wearable member about the upper torso of the mammal, wherein said wearable member includes a therapy delivery portion configured to position said energy module at a treatment site about the upper torso, and characterized in that the treatment site is positioned on top of the neck and along the spine of the mammal.
A method for determining genomic DNA accessibility, the method comprising: (a) a biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a plurality of splint oligonucleotides to the biological sample, wherein a splint oligonucleotide hybridizes to the capture domain; (c) contacting a transposome to the biological sample to insert transposon end sequences into accessible genomic DNA, thereby generating fragmented genomic DNA; (d) hybridizing the fragmented genomic DNA to the splint oligonucleotide and ligating the fragmented genomic DNA to the capture probe; (e) releasing one or more non-ligated transposon end sequences from the ligated fragmented genomic DNA; and (f) determining (i) a sequence of the spatial barcode or a complement thereof, and (ii) all or a portion of a sequence of the fragmented genomic DNA, or a complement thereof, and using the determined sequences of (i) and (ii) to determine genomic DNA accessibility in the biological sample. (a) a biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a plurality of splint oligonucleotides to the biological sample, wherein a splint oligonucleotide hybridizes to the capture domain; (c) contacting a transposome to the biological sample to insert transposon end sequences into accessible genomic DNA, thereby generating fragmented genomic DNA; (d) hybridizing the fragmented genomic DNA to the splint oligonucleotide and ligating the fragmented genomic DNA to the capture probe; (e) releasing one or more non-ligated transposon end sequences from the ligated fragmented genomic DNA; and (f) determining (i) a sequence of the spatial barcode or a complement thereof, and (ii) all or a portion of a sequence of the fragmented genomic DNA, or a complement thereof, and using the determined sequences of (i) and (ii) to determine genomic DNA accessibility in the biological sample.