mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for collecting observation data for updating a geographic database, the method comprising: receiving (S101) a geographic position and associated initial observation data from a first mobile device ; performing (S103), by a processor, an analysis of the initial observation data; determining, by the processor, a bounding box in proximity to the geographic position of the first mobile device; generating a request for additional observations from at least one second mobile device based on the analysis of the initial observation data; sending (S105) the request for additional observations to the at least one second mobile device based on the bounding box; receiving additional observations from the at least one second mobile device; and updating (Sill) the geographic database based on the additional observations. receiving (S101) a geographic position and associated initial observation data from a first mobile device ; performing (S103), by a processor, an analysis of the initial observation data; determining, by the processor, a bounding box in proximity to the geographic position of the first mobile device; generating a request for additional observations from at least one second mobile device based on the analysis of the initial observation data; sending (S105) the request for additional observations to the at least one second mobile device based on the bounding box; receiving additional observations from the at least one second mobile device; and updating (Sill) the geographic database based on the additional observations.
A three-terminal resistive switching logic device, comprising: a first vertical active region disposed above a first metal line as an input terminal T1, the first vertical active region comprising a first portion of a metal output region disposed on a first active oxide material region disposed on a first metal input region disposed on the first metal line ; a second vertical active region disposed above a second metal line as an input terminal T2 being co-planar with the first metal line , the second vertical active region comprising a second portion of the metal output region disposed on a second active oxide material region disposed on a second metal input region disposed on the second metal line and a third metal line as an output terminal T3 disposed on and electrically connecting the first and second portions of the metal output region. a first vertical active region disposed above a first metal line as an input terminal T1, the first vertical active region comprising a first portion of a metal output region disposed on a first active oxide material region disposed on a first metal input region disposed on the first metal line ; a second vertical active region disposed above a second metal line as an input terminal T2 being co-planar with the first metal line , the second vertical active region comprising a second portion of the metal output region disposed on a second active oxide material region disposed on a second metal input region disposed on the second metal line and a third metal line as an output terminal T3 disposed on and electrically connecting the first and second portions of the metal output region.
An antiparasitic composition comprising Para-Cymene, Thymol, α-Pinene and Linalool for use in treatment of a disease caused by a parasite selected from the group consisting of: Schistosoma mansoni, Opisthorchis sinensis, Cryptosporidium parvum, Trichinella, Enterobius vermicularis, Ascaris suum and Diplyidium caninum.
Oscillation applicator for MR rheology, comprising: - a plurality of transducers, each of which is configured to generate a reciprocating motion at a given frequency; - a belt mechanically coupled to the plurality of transducers, which belt is designed to be wrapped around a patient's body , the belt itself providing mechanical coupling between the plurality of transducers and the patient's body for the reciprocating motion generated by the plurality of transducers to act on the patient's body via the belt, and wherein - each of the plurality of transducers is coupled to the belt at a different position along its longitudinal extension. - a plurality of transducers, each of which is configured to generate a reciprocating motion at a given frequency; - a belt mechanically coupled to the plurality of transducers, which belt is designed to be wrapped around a patient's body , the belt itself providing mechanical coupling between the plurality of transducers and the patient's body for the reciprocating motion generated by the plurality of transducers to act on the patient's body via the belt, and wherein - each of the plurality of transducers is coupled to the belt at a different position along its longitudinal extension.
A method comprising; (a) enzymatically processing an O-acetylhomoserine (OAHS) fermentation liquor to produce L-methionine and acetate; (b) separating at least a portion of said L-methionine from at least a fraction of said acetate to form separated L-methionine and a residual liquor comprising acetate; and (c) recovering at least a portion of said acetate from said residual liquor; wherein said separating comprises at least two crystallizations; and wherein crystalline L-methionine resulting from the second crystallization is characterized by at least one of: (i) purity greater than 75%; (ii) containing less than 0.1% acetate; and (iii) containing at least 1 PPB of OAHS; and wherein crystalline L-methionine resulting from the second crystallization is added as a solute between said enzymatic processing and said separating. (a) enzymatically processing an O-acetylhomoserine (OAHS) fermentation liquor to produce L-methionine and acetate; (b) separating at least a portion of said L-methionine from at least a fraction of said acetate to form separated L-methionine and a residual liquor comprising acetate; and (c) recovering at least a portion of said acetate from said residual liquor; wherein said separating comprises at least two crystallizations; and wherein crystalline L-methionine resulting from the second crystallization is characterized by at least one of: (i) purity greater than 75%; (ii) containing less than 0.1% acetate; and (iii) containing at least 1 PPB of OAHS; and wherein crystalline L-methionine resulting from the second crystallization is added as a solute between said enzymatic processing and said separating. (i) purity greater than 75%; (ii) containing less than 0.1% acetate; and (iii) containing at least 1 PPB of OAHS;
A method, comprising: receiving electronic label information in a request powered by a connected energy module coupled to an electronic module; displaying the label information at a label, paired to the electronic module, that comprises a display coupled to the electronic module, which label renders images using e-ink, on an industrial automation module such that the label is configurable and provides an image or text without any power by the energy module required to maintain the image or text, wherein the label has a first ID and the method further comprises: receiving a request having a second ID; and comparing the second ID to the first ID; wherein when the second ID matches the first ID, reprogramming the label with the label information in the request characterized in that when the first ID of the label does not match an ID of the electronic module to which it is paired, issuing an alert to a user receiving electronic label information in a request powered by a connected energy module coupled to an electronic module; displaying the label information at a label, paired to the electronic module, that comprises a display coupled to the electronic module, which label renders images using e-ink, on an industrial automation module such that the label is configurable and provides an image or text without any power by the energy module required to maintain the image or text, wherein the label has a first ID and the method further comprises: receiving a request having a second ID; and comparing the second ID to the first ID; wherein when the second ID matches the first ID, reprogramming the label with the label information in the request characterized in that when the first ID of the label does not match an ID of the electronic module to which it is paired, issuing an alert to a user receiving a request having a second ID; and comparing the second ID to the first ID; wherein when the second ID matches the first ID, reprogramming the label with the label information in the request characterized in that when the first ID of the label does not match an ID of the electronic module to which it is paired, issuing an alert to a user
Rail vehicle for passenger transport comprising a carriage with at least one door in a passenger entrance/exit area and an extendable step platform for bridging a horizontal gap between the carriage and a stationary platform, wherein in the passenger entrance/exit area it has an immobile stepping strip which is fixedly connected to the carriage and projects beyond an outer shell of the carriage , characterised in that the extendable step platform is arranged below the stepping strip in such a way that a step is embodied between the extended step platform and the stepping strip , wherein the stepping strip has an L-shaped profile in an outwardly directed region, wherein a substantially horizontal section of the L-shaped profile is embodied for stepping purposes and projects at least partially beyond the outer shell of the carriage and wherein a substantially vertical section of the L-shaped profile is embodied to rest against the door in a closed position.
Method for estimating the impedances of layers (Li, Lj) on electrodes in multiphase pipe flow, the pipe including a set of electrodes (i, j) being evenly distributed along the inner pipe circumference, said method comprising the steps of measuring the impedance between each electrode and the other electrodes and obtaining a set of impedance values R ij measured , said flow in average being annular and circular symmetric, the method further making use of a precomputed model stored in a computer storage, said model defining a solution space R ij flow of expected impedance values and for which the conductivity σ depends only on r and increases as r increases, r being the radius away from the center of the flow wherein R ij measured = R ij flow + L i + L j = R ij flow − 2 k + L i + k + L j + k , k being a variable called the offset value, and the impedances R ij flow being categorized depending on the distance between the measuring electrodes (i, j) in order to reduce the number of unknowns in the equation 2, the method further comprising the step of: finding impedances of said layers (Li,Lj) on said electrodes and adding various k to the layers impedances (Li,Lj) such that the impedances of said layers (Li,Lj) combined with an average mean(R ij measured ) of the measured impedances over a chosen period place the resulting averaged impedances mean(R ij flow ) within the boundary of the pre-computed solution space R ij flow , representing the expected impedance value range. the method further making use of a precomputed model stored in a computer storage, said model defining a solution space R ij flow of expected impedance values and for which the conductivity σ depends only on r and increases as r increases, r being the radius away from the center of the flow wherein R ij measured = R ij flow + L i + L j = R ij flow − 2 k + L i + k + L j + k , k being a variable called the offset value, and the impedances R ij flow being categorized depending on the distance between the measuring electrodes (i, j) in order to reduce the number of unknowns in the equation 2, the method further comprising the step of: finding impedances of said layers (Li,Lj) on said electrodes and adding various k to the layers impedances (Li,Lj) such that the impedances of said layers (Li,Lj) combined with an average mean(R ij measured ) of the measured impedances over a chosen period place the resulting averaged impedances mean(R ij flow ) within the boundary of the pre-computed solution space R ij flow , representing the expected impedance value range.
A method comprising: flowing a first fluid and a second fluid into a conduit , the first fluid and the second fluid being immiscible with respect to one another, the first fluid containing a plurality of target molecules, wherein the maximum cross-sectional dimension of the conduit is such that a plurality of discrete volumes of the first fluid are formed in the conduit and separated from one another by the second fluid and the discrete volumes of the first fluid cannot flow past each other in the conduit , and wherein at least one of the discrete volumes of the first fluid contains a single target molecule; and amplifying the single target molecule in the at least one discrete volume to form an amplification product, wherein at least one of the discrete volumes of the first fluid is free of the target molecules, and wherein the first fluid is a sample which has been diluted such that at most 40% of the discrete volumes of the first fluid contains a single target molecule. flowing a first fluid and a second fluid into a conduit , the first fluid and the second fluid being immiscible with respect to one another, the first fluid containing a plurality of target molecules, wherein the maximum cross-sectional dimension of the conduit is such that a plurality of discrete volumes of the first fluid are formed in the conduit and separated from one another by the second fluid and the discrete volumes of the first fluid cannot flow past each other in the conduit , and wherein at least one of the discrete volumes of the first fluid contains a single target molecule; and amplifying the single target molecule in the at least one discrete volume to form an amplification product, wherein at least one of the discrete volumes of the first fluid is free of the target molecules, and wherein the first fluid is a sample which has been diluted such that at most 40% of the discrete volumes of the first fluid contains a single target molecule.
Protection system for a pot containing a cosmetic product and having an opening delimited by lateral wall , said protection system having: - a plate intended to be inserted into the opening and having a perimeter , and - a band having an inner zone fastened to the plate within the perimeter and an outer zone extending beyond the perimeter and intended to be fastened to the lateral wall , wherein the plate is pierced by slot of which the dimensions are such that a finger cannot pass through it. - a plate intended to be inserted into the opening and having a perimeter , and - a band having an inner zone fastened to the plate within the perimeter and an outer zone extending beyond the perimeter and intended to be fastened to the lateral wall , wherein the plate is pierced by slot of which the dimensions are such that a finger cannot pass through it.
A rotorcraft comprising: at least one main rotor with a rotor head and a plurality of rotor blades extending from the rotor head toward associated rotor blade tips , wherein the associated rotor blade tips form a virtual blade tip circle upon rotation around the rotor head ; at least one light returning unit provided on at least one of the associated rotor blade tips ; a blade tip illumination device comprising at least one light source configured to emit a light beam toward at least a portion of the virtual blade tip circle for illuminating the at least one light returning unit ; and a command unit configured to command the at least one light source to emit one of a white light beam with a luminous intensity of more than 1000 cd, in a night-vision free mode, or an infrared light beam with a radiant intensity of approximately 0.1 W/sr, in a night-vision mode; wherein the at least one light returning unit is adapted to return light only in response to being illuminated with the emitted light beam ; wherein the returned light forms during rotation of the associated rotor blade tips around the rotor head on the virtual blade tip circle a luminous ring segment ; wherein the returned light has a wavelength that is detectable without a night-vision device in the night-vision free mode, and wherein the returned light has a wavelength that is detectable by a night-vision device in the night-vision mode. at least one main rotor with a rotor head and a plurality of rotor blades extending from the rotor head toward associated rotor blade tips , wherein the associated rotor blade tips form a virtual blade tip circle upon rotation around the rotor head ; at least one light returning unit provided on at least one of the associated rotor blade tips ; a blade tip illumination device comprising at least one light source configured to emit a light beam toward at least a portion of the virtual blade tip circle for illuminating the at least one light returning unit ; and a command unit configured to command the at least one light source to emit one of a white light beam with a luminous intensity of more than 1000 cd, in a night-vision free mode, or an infrared light beam with a radiant intensity of approximately 0.1 W/sr, in a night-vision mode; wherein the at least one light returning unit is adapted to return light only in response to being illuminated with the emitted light beam ; wherein the returned light forms during rotation of the associated rotor blade tips around the rotor head on the virtual blade tip circle a luminous ring segment ; wherein the returned light has a wavelength that is detectable without a night-vision device in the night-vision free mode, and wherein the returned light has a wavelength that is detectable by a night-vision device in the night-vision mode.
Device (100; 201; 901; 2010; 2011; 2012; 2013; 2014; 2015; 2016; 2017; 2018; 2019) for in-vitro modelling in-vivo tissues of organs, comprising a first body portion (207; 2070; 2071; 2072; 2073; 2074; 2075 2076; 2077; 2078; 2079) with at least one access chamber (213; 2130; 2131; 2132; 2133; 2134; 2135; 2136; 2137; 2138; 2139), a second body portion (205; 2050; 2051; 2052; 2053; 2054; 2055; 2056; 2057; 2058; 2059) with at least one culturing chamber (221; 2210; 2211; 2212; 2213; 2214; 2215; 2216; 2217; 2218; 2219), and a culturing membrane (206; 2060; 2061; 2062; 2063; 2064; 2065; 2066; 2067; 2068; 2069) dividing the at least one access chamber (213; 2130; 2131; 2132; 2133; 2134; 2135; 2136; 2137; 2138; 2139) from the culturing chamber (221; 2210; 2211; 2212; 2213; 2214; 2215; 2216; 2217; 2218; 2219), characterized by further comprising a third body portion (203; 2030; 2031; 2032; 2033; 2054; 2035; 2036; 2037; 2038; 2039) with at least one actuation chamber (220; 2200; 2201; 2202; 2203; 2204; 2205; 2206; 2207; 2208; 2209) having at least one limitation cavity, and an actuation membrane (204; 2040; 2041; 2042; 2043; 2044; 2045; 2046; 2047; 2048; 2049) dividing the at least one culturing chamber (221; 2210; 2211; 2212; 2213; 2214; 2215; 2216; 2217; 2218; 2219) from the at least one actuation chamber (220; 2200; 2201; 2202; 2203; 2204; 2205; 2206; 2207; 2208; 2209), such that the culturing membrane (206; 2060; 2061; 2062; 2063; 2064; 2065; 2066; 2067; 2068; 2069) is deflectable by adjusting a pressure in the actuation chamber (220; 2200; 2201; 2202; 2203; 2204; 2205; 2206; 2207; 2208; 2209).
A limb exercise device comprising: a first side of the limb exercise device comprising a substantially concave cross-sectional shape configured to receive a heel of a user; a sliding surface for sliding the limb exercise device along another surface separate of the limb exercise device, wherein the sliding surface comprises a part of an external housing of the limb exercise device on a second side of the limb exercise device opposite to the first side; characterized in that the limb exercise device further comprises: a force sensor configured to detect and measure, in use, a force of a user's limb applied to the first side of the limb exercise device; and output means configured to provide a measurement signal from the force sensor . a first side of the limb exercise device comprising a substantially concave cross-sectional shape configured to receive a heel of a user; a sliding surface for sliding the limb exercise device along another surface separate of the limb exercise device, wherein the sliding surface comprises a part of an external housing of the limb exercise device on a second side of the limb exercise device opposite to the first side; characterized in that the limb exercise device further comprises: a force sensor configured to detect and measure, in use, a force of a user's limb applied to the first side of the limb exercise device; and output means configured to provide a measurement signal from the force sensor .
An oxidant gas safety controller for a flame module of a spectrometer comprising: an oxidant gas valve signal output configured to output an oxidant gas valve signal to an oxidant gas flow valve for controlling the flow rate of an oxidant gas through the oxidant gas flow valve ; a first switch ; a first energy storage circuit ; wherein the oxidant gas safety controller is configured to charge the first energy storage circuit when the first switch is powered; and the oxidant gas safety controller is configured to discharge the first energy storage circuit through the oxidant gas valve output as the oxidant gas valve signal to increase the flow rate of the oxidant gas through the oxidant gas flow valve when the first switch is switched from a powered state to an unpowered state. an oxidant gas valve signal output configured to output an oxidant gas valve signal to an oxidant gas flow valve for controlling the flow rate of an oxidant gas through the oxidant gas flow valve ; a first switch ; a first energy storage circuit ; wherein the oxidant gas safety controller is configured to charge the first energy storage circuit when the first switch is powered; and the oxidant gas safety controller is configured to discharge the first energy storage circuit through the oxidant gas valve output as the oxidant gas valve signal to increase the flow rate of the oxidant gas through the oxidant gas flow valve when the first switch is switched from a powered state to an unpowered state.
A method for polymer chromatography, comprising introducing a solution, comprising a polymer, into a liquid flowing through a first stationary phase, and wherein the first stationary phase comprises one of the following: A) a material comprising silicon carbide, or B) glass, or a metal, or combinations thereof, and a material comprising silicon carbide. A) a material comprising silicon carbide, or B) glass, or a metal, or combinations thereof, and a material comprising silicon carbide.