mhurhangee/patent-ind-claim-en huggingface dataset:
A system for inserting needles into a body, comprising: a guide plate comprising a plurality of apertures , each aperture being configured to receive a needle to be inserted into a body, wherein at least some apertures of said plurality of apertures have a respective detector associated thereto, each detector comprising a resonant circuit for detecting the presence of a needle inserted into a respective aperture , said resonant circuit being configured to modify its resonant frequency when the needle is inserted into the aperture; the system being characterized in that it further comprises: a probe for measuring, together with the detector comprised in an aperture, the penetration depth of a needle inserted into said aperture , each detector being configured to track changes in its resonant frequency produced when said probe is inserted along the needle in turn inserted into the aperture ; and control electronics for interrogating each detector and for determining the presence or absence of a needle in a corresponding aperture and for determining the penetration depth of a detected needle from said tracked changes in the resonant frequency of a corresponding detector. a guide plate comprising a plurality of apertures , each aperture being configured to receive a needle to be inserted into a body, wherein at least some apertures of said plurality of apertures have a respective detector associated thereto, each detector comprising a resonant circuit for detecting the presence of a needle inserted into a respective aperture , said resonant circuit being configured to modify its resonant frequency when the needle is inserted into the aperture; the system being characterized in that it further comprises: a probe for measuring, together with the detector comprised in an aperture, the penetration depth of a needle inserted into said aperture , each detector being configured to track changes in its resonant frequency produced when said probe is inserted along the needle in turn inserted into the aperture ; and control electronics for interrogating each detector and for determining the presence or absence of a needle in a corresponding aperture and for determining the penetration depth of a detected needle from said tracked changes in the resonant frequency of a corresponding detector.
A multi-spectrum X-ray grating-based imaging system comprising: an incoherent X-ray source (S), for emitting X-rays to irradiate an object to be detected (W); a grating module (P), comprising a first absorption grating (G1) and a second absorption grating (G2) which are disposed in parallel to each other and are sequentially arranged in an X-ray propagation direction; and an energy-resolved detecting device, for receiving the X-rays that have passed through the first absorption grating (G1) and the second absorption grating (G2), the grating module (P) being configured such that one of the first absorption grating (G1) and the second absorption grating (G2) performs phase stepping actions within at least one period, wherein during each phase stepping action, the incoherent X-ray source (S) emits X-rays to radiate the object to be detected, and the energy-resolved detecting device receives the X-rays and performs spectrum identification of the received X-rays, and wherein after a series of phase stepping actions and data acquisitions over a period, at each pixel on the energy-resolved detecting device, X-ray intensities in each energy range are represented as an intensity curve. an incoherent X-ray source (S), for emitting X-rays to irradiate an object to be detected (W); a grating module (P), comprising a first absorption grating (G1) and a second absorption grating (G2) which are disposed in parallel to each other and are sequentially arranged in an X-ray propagation direction; and an energy-resolved detecting device, for receiving the X-rays that have passed through the first absorption grating (G1) and the second absorption grating (G2), the grating module (P) being configured such that one of the first absorption grating (G1) and the second absorption grating (G2) performs phase stepping actions within at least one period, wherein during each phase stepping action, the incoherent X-ray source (S) emits X-rays to radiate the object to be detected, and the energy-resolved detecting device receives the X-rays and performs spectrum identification of the received X-rays, and wherein after a series of phase stepping actions and data acquisitions over a period, at each pixel on the energy-resolved detecting device, X-ray intensities in each energy range are represented as an intensity curve.
A sauna stove comprising: an outer mantle; and a lid; wherein the lid comprises a lid plate that covers a stone drum of the sauna stove and that is made of stone; glass; glass ceramic or ceramic material; characterized in that the lid is formed of the lid plate and a lid plate frame ; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove. an outer mantle; and a lid; wherein the lid comprises a lid plate that covers a stone drum of the sauna stove and that is made of stone; glass; glass ceramic or ceramic material; characterized in that the lid is formed of the lid plate and a lid plate frame ; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove. the lid is formed of the lid plate and a lid plate frame ; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove.
Method for locating a, in particular rail-bound, vehicle (FZ) in the region of a station intended for stopping of the vehicle (FZ), in which a stopping point (HP) is approaching for the stop and the vehicle (FZ) is stopped at the stopping point (HP), wherein a first antenna system (AS1), consisting of a anchor antenna (AA) at a fixed location and a mobile antenna (MA) installed in the vehicle (FZ), is used for the locating, in order to monitor the stopping of the vehicle (FZ) at the stopping point (HP), in particular with aligning agreement of vehicle-side vehicle doors with station-side platform screen doors, wherein the first antenna system (AS1) works with a wideband signal transfer, in particular in UWB technology, characterised in that • a, in particular rail-bound, balise (BL1, BL2) is used, which as well as the anchor antenna (AA) additionally has a balise antenna (BA), • the rail-bound vehicle (FZ) additionally has a vehicle antenna (FZA), which embodies a second antenna system (AS2) with the balise antenna (BA), • while travelling over the balise (BL1, BL2), the second antenna system (AS2) has a signal-related connection, • after travelling over the balise (BL1, BL2), the signal-related connection of the first antenna system (AS1) is used, in order to ascertain a position (POS) of the vehicle (FZ) in relation to the balise antenna (BA). wherein a first antenna system (AS1), consisting of a anchor antenna (AA) at a fixed location and a mobile antenna (MA) installed in the vehicle (FZ), is used for the locating, in order to monitor the stopping of the vehicle (FZ) at the stopping point (HP), in particular with aligning agreement of vehicle-side vehicle doors with station-side platform screen doors, wherein the first antenna system (AS1) works with a wideband signal transfer, in particular in UWB technology, characterised in that • a, in particular rail-bound, balise (BL1, BL2) is used, which as well as the anchor antenna (AA) additionally has a balise antenna (BA), • the rail-bound vehicle (FZ) additionally has a vehicle antenna (FZA), which embodies a second antenna system (AS2) with the balise antenna (BA), • while travelling over the balise (BL1, BL2), the second antenna system (AS2) has a signal-related connection, • after travelling over the balise (BL1, BL2), the signal-related connection of the first antenna system (AS1) is used, in order to ascertain a position (POS) of the vehicle (FZ) in relation to the balise antenna (BA). • a, in particular rail-bound, balise (BL1, BL2) is used, which as well as the anchor antenna (AA) additionally has a balise antenna (BA), • the rail-bound vehicle (FZ) additionally has a vehicle antenna (FZA), which embodies a second antenna system (AS2) with the balise antenna (BA), • while travelling over the balise (BL1, BL2), the second antenna system (AS2) has a signal-related connection, • after travelling over the balise (BL1, BL2), the signal-related connection of the first antenna system (AS1) is used, in order to ascertain a position (POS) of the vehicle (FZ) in relation to the balise antenna (BA).
Mobile gas cylinder transport trolley comprising: - a shell delimiting an internal space dimensioned so as to receive one or more gas cylinders, - a plurality of wheels for moving the trolley over the ground and - a gas distribution system connected to at least one gas cylinder, and configured to convey gas, the gas distribution system comprising a gas distribution shaft that projects upwards above the trolley , said gas distribution shaft comprising a stem and a first branch borne by the stem , the stem and the first branch comprising a first internal duct fluidically connecting at least one gas cylinder to a first connection end , characterized in that the stem and the first branch comprise a second internal duct fluidically connecting the first connection end to an exhaled gas treatment device. - a shell delimiting an internal space dimensioned so as to receive one or more gas cylinders, - a plurality of wheels for moving the trolley over the ground and - a gas distribution system connected to at least one gas cylinder, and configured to convey gas, the gas distribution system comprising a gas distribution shaft that projects upwards above the trolley , said gas distribution shaft comprising a stem and a first branch borne by the stem , the stem and the first branch comprising a first internal duct fluidically connecting at least one gas cylinder to a first connection end ,
Electric machine comprising a stator and a rotor arranged at least partially within the stator , said rotor comprising a shaft , the shaft having on at least one end face at least one opening extending in a direction along the axis of rotation (x) of the shaft , wherein at least one heat-conducting element is inserted into the opening , characterized in that the heat-conducting element is entirely made of a material with a higher thermal conductivity than the material of the shaft and occupies at least 95% of the sectional area of the opening .
A current splitting device comprising: a first circuit, comprising a first winding wound about a core; and a second circuit comprising a second winding wound about the core, wherein a first current conveyed through the first winding flows in first direction and a second current conveyed through the second winding flows in a second direction opposite to the first direction, the first circuit and second circuit being magnetically coupled during a steady state operation and magnetically decoupled during a condition in which a fault current occurs to limit an amount of current delivered to a load, wherein the first current and the second current are part of a current split by the current splitting device; a fault current limiter electrically coupled to the first circuit and the second circuit, wherein the fault current limiter is electrically coupled in series with the second circuit to form a series connection, wherein the series connection is electrically coupled in parallel with the first circuit, the current splitting device being characterized in that the first and second windings are wound in a crisscrossed arrangement with an equal number of turns; and a tuning winding electrically connected in series with the first circuit for facilitating fine tuning of an impedance and current distribution of the current splitting device, the tuning winding further electrically connected in parallel with the fault current limiter . a first circuit, comprising a first winding wound about a core; and a second circuit comprising a second winding wound about the core, wherein a first current conveyed through the first winding flows in first direction and a second current conveyed through the second winding flows in a second direction opposite to the first direction, the first circuit and second circuit being magnetically coupled during a steady state operation and magnetically decoupled during a condition in which a fault current occurs to limit an amount of current delivered to a load, wherein the first current and the second current are part of a current split by the current splitting device; a fault current limiter electrically coupled to the first circuit and the second circuit, wherein the fault current limiter is electrically coupled in series with the second circuit to form a series connection, wherein the series connection is electrically coupled in parallel with the first circuit, the current splitting device being characterized in that the first and second windings are wound in a crisscrossed arrangement with an equal number of turns; and a tuning winding electrically connected in series with the first circuit for facilitating fine tuning of an impedance and current distribution of the current splitting device, the tuning winding further electrically connected in parallel with the fault current limiter .
A floor tool for an apparatus for cleaning a floor surface, said apparatus including a source of suction, the floor tool including: a housing having an interior surface (that defines a chamber for receiving at least a portion of a cleaning member , the housing including: a chamber inlet for receiving dirty air; and a chamber outlet for communication with the suction source, wherein the housing is formed of at least two housing portions which provide said interior surface and all of said housing portions are permanently connected or permanently joined to each other to form a unitary construction. a chamber inlet for receiving dirty air; and a chamber outlet for communication with the suction source,
Flexible hose line for transporting a fluid (F), in particular drinking water, comprising - a layer containing an ethylene-octene copolymer, - wherein the layer has an internal diameter (d i ) of 2 to 12 mm, - wherein the layer has a layer thickness (s i ) of 0.05 to 0.7 mm, in particular 0.1 to 0.5 mm, - wherein a supporting layer adjoins the layer on the outside, - wherein the layer preferably forms the innermost layer of the hose line , and - wherein the hose line is bendable, with an inner bending radius (r) of 10 cm, by 90° without kinking. - a layer containing an ethylene-octene copolymer, - wherein the layer has an internal diameter (d i ) of 2 to 12 mm, - wherein the layer has a layer thickness (s i ) of 0.05 to 0.7 mm, in particular 0.1 to 0.5 mm, - wherein a supporting layer adjoins the layer on the outside, - wherein the layer preferably forms the innermost layer of the hose line , and - wherein the hose line is bendable, with an inner bending radius (r) of 10 cm, by 90° without kinking.
A method of using a superhydrophobic and strongly oleophilic porous calcined inorganic granulated absorbent product for oil absorption, characterized in that the superhydrophobic oleophilic product a. consists of calcined granulate whose main constituent is diatomaceous earth having thin walled tubes where typically 90% of the tubes have a diameter of less than 1 micron, characterized in that the product is added a permanent chemical crosslinked superhydrophobic oleophilic surface coating upon formation of substrate - Si -O bonds where the average tube diameter reduction due to surface coating is not more than 0.1 micron in which the permanent chemical crosslinked substrate Si-O crosslinks are bound to the substrate by one or more of SiO2, Al2O3, Fe2O3 , TiO2, MgO, CaO, K2O and / or Na2O, b. wherein the coating is a coating with an average maximum thickness of 0.05 μm by crosslinking with a polysiloxane, and c. wherein the product is arranged in a filter bed, or in a filter housing, or in a filter cartridge, through which a surface active liquid, preferably an alcohol is being processed, after which the product is flushed clean with pure water whereby the product now has a modified hydrophilic surface through which oil contaminated process water is processed and whereby the product, despite wetting, maintain its original affinity for oil and by means of absorption displaces water in the pore volume in favour of oil so that all available pore volume is used for oil absorption. a. consists of calcined granulate whose main constituent is diatomaceous earth having thin walled tubes where typically 90% of the tubes have a diameter of less than 1 micron, characterized in that the product is added a permanent chemical crosslinked superhydrophobic oleophilic surface coating upon formation of substrate - Si -O bonds where the average tube diameter reduction due to surface coating is not more than 0.1 micron in which the permanent chemical crosslinked substrate Si-O crosslinks are bound to the substrate by one or more of SiO2, Al2O3, Fe2O3 , TiO2, MgO, CaO, K2O and / or Na2O, b. wherein the coating is a coating with an average maximum thickness of 0.05 μm by crosslinking with a polysiloxane, and c. wherein the product is arranged in a filter bed, or in a filter housing, or in a filter cartridge, through which a surface active liquid, preferably an alcohol is being processed, after which the product is flushed clean with pure water whereby the product now has a modified hydrophilic surface through which oil contaminated process water is processed and whereby the product, despite wetting, maintain its original affinity for oil and by means of absorption displaces water in the pore volume in favour of oil so that all available pore volume is used for oil absorption.
A computer-implemented method, comprising: - processing a data stream comprising input point cloud having been split into input tiles and their respective bounding boxes; - sorting the bounding boxes according to a distance to a viewing location; - dividing a rendering framebuffer into screen-space rendering tiles; - projecting the bounding boxes to a screen space to determine which bounding boxes overlap with which rendering tiles; - storing indices of overlapping bounding boxes as a list per a corresponding screen-space rendering tile being overlapped; - reconstructing a screen space surface by rendering the points of the bounding boxes to screen-space rendering tile points, by fetching data of the input tile to which the stored indices of the bounding boxes refer to; - rendering the reconstructed screen space surface. - processing a data stream comprising input point cloud having been split into input tiles and their respective bounding boxes; - sorting the bounding boxes according to a distance to a viewing location; - dividing a rendering framebuffer into screen-space rendering tiles; - projecting the bounding boxes to a screen space to determine which bounding boxes overlap with which rendering tiles; - storing indices of overlapping bounding boxes as a list per a corresponding screen-space rendering tile being overlapped; - reconstructing a screen space surface by rendering the points of the bounding boxes to screen-space rendering tile points, by fetching data of the input tile to which the stored indices of the bounding boxes refer to; - rendering the reconstructed screen space surface.
A microfluidic device comprising: a substrate comprising: one or more inlet channels; a mixing channel; wherein at least one inlet channel is fluidically connected to the mixing channel; a first chamber fluidically connected to the mixing channel; a capture antibody immobilized on the substrate in the first chamber; a second chamber fluidically connected to the first chamber and/or one or more inlet channels, wherein the second chamber comprises two or more electrodes, wherein at least one of the two or more electrodes comprises a surface with a conductive polymer layer; an outlet channel fluidically connected to the second chamber; a light source to irradiate the two or more electrodes of the second chamber. a substrate comprising: one or more inlet channels; a mixing channel; wherein at least one inlet channel is fluidically connected to the mixing channel; a first chamber fluidically connected to the mixing channel; a capture antibody immobilized on the substrate in the first chamber; a second chamber fluidically connected to the first chamber and/or one or more inlet channels, wherein the second chamber comprises two or more electrodes, wherein at least one of the two or more electrodes comprises a surface with a conductive polymer layer; an outlet channel fluidically connected to the second chamber; one or more inlet channels; a mixing channel; wherein at least one inlet channel is fluidically connected to the mixing channel; a first chamber fluidically connected to the mixing channel; a capture antibody immobilized on the substrate in the first chamber; a second chamber fluidically connected to the first chamber and/or one or more inlet channels, wherein the second chamber comprises two or more electrodes, wherein at least one of the two or more electrodes comprises a surface with a conductive polymer layer; an outlet channel fluidically connected to the second chamber; a light source to irradiate the two or more electrodes of the second chamber.