mhurhangee/patent-ind-claim-en huggingface dataset:
Control device for an HVAC system , the control device comprising a communication module for communicating with one or more components of the HVAC system , comprising: a sensor device of the HVAC system , a passive NFC transponder which is configured to receive and store a unique identifier of the one or more components from a mobile service device before a power supply of the control device is switched on, and a control module which is configured to access identifiers stored in the NFC transponder after a power supply of the control device is switched on and to transmit control signals to components determined by the identifiers via the communication module . a sensor device of the HVAC system , a passive NFC transponder which is configured to receive and store a unique identifier of the one or more components from a mobile service device before a power supply of the control device is switched on, and a control module which is configured to access identifiers stored in the NFC transponder after a power supply of the control device is switched on and to transmit control signals to components determined by the identifiers via the communication module .
An operating device configured to operate in a work space (L), comprising: - a robot arm , which comprises a succession of arm elements mounted on one another in a rotatable way about respective axes of rotation (Xi) and which carries an operating unit on its end; and - at least one presence sensor prearranged for detecting the presence of an operator; said device being characterized in that it includes a positioning system comprising a support by which the at least one presence sensor is carried and which is mounted on an arm element of the robot arm, according to a pre-set orientation and in such a way as to be orientable with respect to the arm element , characterised in that the positioning system further comprises a positioning unit (24; 44; 54) prearranged for rotating the support with respect to the arm element , as a result of a movement of the robot arm, so as to keep the pre-set orientation of the support unchanged. - a robot arm , which comprises a succession of arm elements mounted on one another in a rotatable way about respective axes of rotation (Xi) and which carries an operating unit on its end; and - at least one presence sensor prearranged for detecting the presence of an operator;
A method for estimating an acoustic property of a physical medium in a region-of-interest using an ultrasound system, the steps of the method comprising: (a) acquiring ultrasound data from a plurality of depth locations along an ultrasound beam path within the region-of-interest, the ultrasound data comprising at least first ultrasound data acquired in response to transmitting ultrasound to the region-of-interest at a first frequency and second ultrasound data acquired in response to transmitting ultrasound to the region-of-interest at a second frequency that is different from the first frequency, wherein the first ultrasound data comprise a first power spectrum of backscattered radio frequency (RF) signals and the second ultrasound data comprise a second power spectrum of backscattered RF signals; (b) computing a plurality of frequency spectra ratio values by computing a ratio between the first power spectrum in the first ultrasound data and the second power spectrum in the second ultrasound data acquired at each of the plurality of different depth locations; (c) estimating an acoustic property value of a physical medium in the region-of-interest from the plurality of frequency spectra ratio values; and (d) generating a report based on the estimated acoustic property value of the physical medium. (a) acquiring ultrasound data from a plurality of depth locations along an ultrasound beam path within the region-of-interest, the ultrasound data comprising at least first ultrasound data acquired in response to transmitting ultrasound to the region-of-interest at a first frequency and second ultrasound data acquired in response to transmitting ultrasound to the region-of-interest at a second frequency that is different from the first frequency, wherein the first ultrasound data comprise a first power spectrum of backscattered radio frequency (RF) signals and the second ultrasound data comprise a second power spectrum of backscattered RF signals; (b) computing a plurality of frequency spectra ratio values by computing a ratio between the first power spectrum in the first ultrasound data and the second power spectrum in the second ultrasound data acquired at each of the plurality of different depth locations; (c) estimating an acoustic property value of a physical medium in the region-of-interest from the plurality of frequency spectra ratio values; and (d) generating a report based on the estimated acoustic property value of the physical medium.
An electronic cigarette , comprising: a liquid reservoir configured to store liquid; an atomizing assembly received in a housing , the atomizing assembly comprising: a liquid absorption element connected to the liquid reservoir , the liquid absorption element being made of porous ceramic, and the liquid absorption element having a liquid absorption surface configured to absorb the liquid, and an atomizing surface ; and a heating element embedded in an interior of the liquid absorption element , wherein the heating element is configured to atomize the liquid absorbed by the liquid absorption element into atomized gas; and a power source assembly received in the housing and connected to the atomizing assembly , the power source assembly being configured to provide power for the heating element characterized in that an edge of the heating element is internally tangent to the atomizing surface . a liquid reservoir configured to store liquid; an atomizing assembly received in a housing , the atomizing assembly comprising: a liquid absorption element connected to the liquid reservoir , the liquid absorption element being made of porous ceramic, and the liquid absorption element having a liquid absorption surface configured to absorb the liquid, and an atomizing surface ; and a heating element embedded in an interior of the liquid absorption element , wherein the heating element is configured to atomize the liquid absorbed by the liquid absorption element into atomized gas; and a liquid absorption element connected to the liquid reservoir , the liquid absorption element being made of porous ceramic, and the liquid absorption element having a liquid absorption surface configured to absorb the liquid, and an atomizing surface ; and a heating element embedded in an interior of the liquid absorption element , wherein the heating element is configured to atomize the liquid absorbed by the liquid absorption element into atomized gas; and a power source assembly received in the housing and connected to the atomizing assembly , the power source assembly being configured to provide power for the heating element characterized in that an edge of the heating element is internally tangent to the atomizing surface .
A material carrying mechanism , comprising: a base ; a tray configured to support a material, the tray being movably mounted on the base ; and an adjustment assembly mounted on the base , the adjustment assembly comprising a first ejection member and a first elastic restoring member , wherein the first ejection member comprises a first telescopic portion abutting against the tray , the first telescopic portion is capable of performing a telescopic movement in a first direction to push the tray to move in the first direction, and the first elastic restoring member is connected between the base and the tray , so as to provide to the tray a restoring force directed to the first ejection member . a base ; a tray configured to support a material, the tray being movably mounted on the base ; and an adjustment assembly mounted on the base , the adjustment assembly comprising a first ejection member and a first elastic restoring member , wherein the first ejection member comprises a first telescopic portion abutting against the tray , the first telescopic portion is capable of performing a telescopic movement in a first direction to push the tray to move in the first direction, and the first elastic restoring member is connected between the base and the tray , so as to provide to the tray a restoring force directed to the first ejection member .
A method for generating data representing the volume of part of a body , the method comprising: generating a point distribution model "PDM" based on an input dataset comprising data representing at least one surface of part of a body, the PDM defining a surface model dataset for the part of the body based on an average dataset and one or more weight-eigenvector pairs; generating a first surface model dataset based on the PDM by modifying at least one weight of the one or more weight-eigenvector pairs such that the first surface model dataset generally corresponds to a first reference dataset, wherein the first surface model dataset is different from the average dataset; modifying at least one weight of the one or more weight-eigenvector pairs to provide a second surface model dataset different from the first surface model dataset; determining a mapping between the first and second surface model datasets and characterized by generating an output volume dataset for the part of the body by applying the mapping to a second reference dataset, the second reference dataset comprising volume data representing the volume of a corresponding part of a body, the output volume dataset comprising data representing a deformed volume of the corresponding part of the body, wherein the first reference dataset is different from the second reference dataset. generating a point distribution model "PDM" based on an input dataset comprising data representing at least one surface of part of a body, the PDM defining a surface model dataset for the part of the body based on an average dataset and one or more weight-eigenvector pairs; generating a first surface model dataset based on the PDM by modifying at least one weight of the one or more weight-eigenvector pairs such that the first surface model dataset generally corresponds to a first reference dataset, wherein the first surface model dataset is different from the average dataset; modifying at least one weight of the one or more weight-eigenvector pairs to provide a second surface model dataset different from the first surface model dataset; determining a mapping between the first and second surface model datasets and characterized by generating an output volume dataset for the part of the body by applying the mapping to a second reference dataset, the second reference dataset comprising volume data representing the volume of a corresponding part of a body, the output volume dataset comprising data representing a deformed volume of the corresponding part of the body, wherein the first reference dataset is different from the second reference dataset.
A composition comprising in weight percent (wt%) based on the weight of the composition: (A) 15-70 wt% polypropylene (PP), (B) 15-70 wt% high density polyethylene (HDPE), (C) >0-30 wt% propylene-ethylene copolymer (PE copolymer), (D) 2-15 wt% olefin block composite, and (E) 0-20 wt% of one or more of a nucleating agent, filler and additive, with the proviso that the weight ratio of PP to HDPE is greater than (>) 1. (A) 15-70 wt% polypropylene (PP), (B) 15-70 wt% high density polyethylene (HDPE), (C) >0-30 wt% propylene-ethylene copolymer (PE copolymer), (D) 2-15 wt% olefin block composite, and (E) 0-20 wt% of one or more of a nucleating agent, filler and additive,
A rigidizing overtube comprising: an elongate flexible tube ; two or more mounting elements attached to the flexible tube; a plurality of engagers connected to each of the two or more mounting elements, wherein the plurality of engagers includes a plurality of female engagers and a plurality of male engagers , each of the female engagers comprising an outer flange and an inner flange configured to fit a male engager therebetween; wherein the rigidizing overtube has a flexible configuration in which the plurality of male engagers are configured to move axially within and relative to the female engagers to accommodate bending of the flexible tube; wherein the rigidizing overtube has a rigid configuration in which the plurality of male engagers are fixed relative to the female engagers to prevent the flexible tube from bending; and wherein the overtube is configured to attach to a source of vacuum such that application of vacuum transitions the rigidizing overtube from the flexible configuration to the rigid configuration. an elongate flexible tube ; two or more mounting elements attached to the flexible tube; a plurality of engagers connected to each of the two or more mounting elements, wherein the plurality of engagers includes a plurality of female engagers and a plurality of male engagers , each of the female engagers comprising an outer flange and an inner flange configured to fit a male engager therebetween; wherein the rigidizing overtube has a flexible configuration in which the plurality of male engagers are configured to move axially within and relative to the female engagers to accommodate bending of the flexible tube; wherein the rigidizing overtube has a rigid configuration in which the plurality of male engagers are fixed relative to the female engagers to prevent the flexible tube from bending; and wherein the overtube is configured to attach to a source of vacuum such that application of vacuum transitions the rigidizing overtube from the flexible configuration to the rigid configuration.
A water film solution for use during etching a solar cell silicon wafer, characterized in that the water film solution comprises glucose and bisfluorosulfonimide salt dispersed in water, wherein the glucose is contained in the water film solution in an amount of 1.5 to 4.0 g/L and wherein the bisfluorosulfonimide salt is sodium bisfluorosulfonimide or lithium bisfluorosulfonimide, and is contained in the water film solution in an amount of 0.1 to 0.35 mol/L.
A fuel cell comprising a plurality of modules (M1, M2) mounted in series with each other so as to form a peripheral structure, each module (M1, M2) comprising two end members and a stack of electrochemical cells mounted between two end members , each end member comprising a mounting face in contact with one of the ends of a stack and an interface face in contact with another interface face of another end member , the mounting face and the interface face being angularly spaced apart by an angle a, which is between 0.5° to 60°.
A sensor system an electric screwdriver , comprising: a magnetic field sensor configured to detect a magnetic field of the electric motor of the electric screwdriver which originates from moving the electric motor of the electric screwdriver to output a signal indicating the magnetic field strength; an evaluation unit configured to classify, using the waveform of the signal relating to the magnetic field strength over time, screw processes in the sense of a screw-in process of a screw using a screw-in phase and tightening phase, and classify a screw-out process using initial loosening of the screw. a magnetic field sensor configured to detect a magnetic field of the electric motor of the electric screwdriver which originates from moving the electric motor of the electric screwdriver to output a signal indicating the magnetic field strength; an evaluation unit configured to classify, using the waveform of the signal relating to the magnetic field strength over time, screw processes in the sense of a screw-in process of a screw using a screw-in phase and tightening phase, and classify a screw-out process using initial loosening of the screw.
A mobility device comprising: a frame ; a wheel ; an axle attached to the frame and rotatably supporting the wheel ; and a module including a casing and a fork removeably engaged with the axle , the module including a motor , a battery , and a controller each supported by the casing , and the casing and the frame each including a locking element releasably engageable with each other, characterized in that the fork is retractable relative to the casing . a frame ; a wheel ; an axle attached to the frame and rotatably supporting the wheel ; and a module including a casing and a fork removeably engaged with the axle , the module including a motor , a battery , and a controller each supported by the casing , and the casing and the frame each including a locking element releasably engageable with each other, characterized in that the fork is retractable relative to the casing .
A tritium housing comprising: a body extending along an axis (A) from a first end to a second end to define a hollow extending therebetween; a flange integral with said body and extending radially outwardly from said first end Providing a visible surface of said first end and facilitate placement of the tritium housing within a respective device; a lens disposed adjacent and surrounded by said first end of said body; a tritium vial disposed within said hollow to produce illumination visible through said lens; said body comprised of a colored plastic material for magnifying and brightening said tritium illumination during a daylight use of said tritium housing; and said lens being spherical and extending outwardly from said first end of said body for allowing said tritium illumination to be viewable from a wider range of angles defined relative to said first end of said body. a body extending along an axis (A) from a first end to a second end to define a hollow extending therebetween; a flange integral with said body and extending radially outwardly from said first end Providing a visible surface of said first end and facilitate placement of the tritium housing within a respective device; a lens disposed adjacent and surrounded by said first end of said body; a tritium vial disposed within said hollow to produce illumination visible through said lens; said body comprised of a colored plastic material for magnifying and brightening said tritium illumination during a daylight use of said tritium housing; and said lens being spherical and extending outwardly from said first end of said body for allowing said tritium illumination to be viewable from a wider range of angles defined relative to said first end of said body.
A composition comprising chlorhexidine digluconate solubilized in a monoacylglyceride, wherein the monoacylglyceride is hydrophobic monoacylglyceride having a hydrophilic-lipophilic balance of no greater than 10 as determined using the HLB Method; wherein the composition comprises at least 5% by weight chlorhexidine digluconate dissolved in the hydrophobic monoacylglyceride based on the combined weight of the CHG and hydrophobic monoacylglyceride; wherein the acyl group of the monoacylglyceride is a C8 to C18 acyl group; wherein the composition comprises less than 5 wt.% water based on the total weight of the composition; and wherein the composition comprises no greater than 1 part by weight hydrophilic vehicle per 1 part by weight chlorhexidine digluconate, wherein water is considered a separate component independent of any hydrophilic vehicles.
Cylindrical cell having the features a. The cell comprises a cylindrical housing which encloses an interior space and which is composed of a first and a second metal housing part , b. the housing comprises, at its axial ends, a first planar end face and a second planar end face which are connected to one another by means of an annular casing , c. the cell comprises a positive electrode and a negative electrode, at least one of which can intercalate and/or deintercalate lithium ions, d. the positive electrode is electrically connected to the first housing part directly or via a separate electrical conductor, and the negative electrode is electrically connected to the second housing part directly or via a separate electrical conductor, e. the cell comprises a first contact lug which is configured as a sheet-metal part, which is welded onto the first end face and which has a planar section that extends in a plane parallel to the first end face , and f. the cell comprises a second contact lug which is configured as a sheet-metal part, which is welded onto the second end face and which has a planar subsection that extends in a plane parallel to the second end face and which has a subsection that is angled away from the said plane and extends as far as into the plane of the planar section , wherein g. the angled-away subsection comprises an expansion section in which the second contact lug is designed to expand in the main direction of extent in a targeted and predictable manner under a defined tensile loading in its main direction of extent. a. The cell comprises a cylindrical housing which encloses an interior space and which is composed of a first and a second metal housing part , b. the housing comprises, at its axial ends, a first planar end face and a second planar end face which are connected to one another by means of an annular casing , c. the cell comprises a positive electrode and a negative electrode, at least one of which can intercalate and/or deintercalate lithium ions, d. the positive electrode is electrically connected to the first housing part directly or via a separate electrical conductor, and the negative electrode is electrically connected to the second housing part directly or via a separate electrical conductor, e. the cell comprises a first contact lug which is configured as a sheet-metal part, which is welded onto the first end face and which has a planar section that extends in a plane parallel to the first end face , and f. the cell comprises a second contact lug which is configured as a sheet-metal part, which is welded onto the second end face and which has a planar subsection that extends in a plane parallel to the second end face and which has a subsection that is angled away from the said plane and extends as far as into the plane of the planar section , wherein g. the angled-away subsection comprises an expansion section in which the second contact lug is designed to expand in the main direction of extent in a targeted and predictable manner under a defined tensile loading in its main direction of extent.
A method for manufacturing coal briquettes charged into a dome part of the melter-gasifier to be rapidly heated in an apparatus for manufacturing molten iron , the method comprising: providing fine coal; preparing a mixture by mixing a hardening agent of 1 to 5 parts by weight and a binder of 5 to 15 parts by weight with respect to fine coals of 100 parts by weight; and molding the mixture; characterized in that in the providing of the fine coal, the fine coals comprise low-grade coal of more than 0 and 50wt% or less and metallurgical coal, and the low-grade coal has a volatile matter (on a dry basis) of 25wt% to 40wt% and a free swelling index of more than 0 and less than 3. providing fine coal; preparing a mixture by mixing a hardening agent of 1 to 5 parts by weight and a binder of 5 to 15 parts by weight with respect to fine coals of 100 parts by weight; and molding the mixture; characterized in that in the providing of the fine coal, the fine coals comprise low-grade coal of more than 0 and 50wt% or less and metallurgical coal, and the low-grade coal has a volatile matter (on a dry basis) of 25wt% to 40wt% and a free swelling index of more than 0 and less than 3.