mhurhangee/patent-ind-claim-en huggingface dataset:
Sound source visualisation system, comprising a receiver arrangement set up to receive sound waves, as well as a capture unit configured to capture a surrounding area , a data processing means , a display means , and a carrying device which can be coupled to a head area of a person operating the sound source visualisation system, wherein the receiver arrangement and the capture unit are coupled in a signal-transmitting manner to the data processing means so that a sound wave received within a captured surrounding area can be evaluated and the evaluated result can be visualised by the display means in the form of at least information about the received sound wave, wherein the capture unit is arranged in or on, or is configured as, the carrying device , characterised in that the carrying device is configured transparent or opaque at least in some areas wherein the display means is set up to visualise the site of a sound source as overlay in the surrounding area which is freely visible at least partly through the carrying device or in the surrounding area captured by the capture device .
A decoy peptide, wherein the decoy peptide consists of the sequence GNMEQPHMDSRIGWLHNLGDQ (SEQ ID NO: 4), wherein the decoy peptide inhibits the binding of anti-Ro antibodies to a hERG potassium channel extracellular pore region by competitive inhibition.
A system, comprising: a sorbent recharger , comprising a recharging flow path that is fluidly connectable to a sorbent module containing at least one sorbent material; at least one recharge solution source containing at least one recharge solution for recharging the at least one sorbent material within the sorbent module, the at least one recharge solution source fluidly connectable to a sorbent module inlet ; at least one pump in the recharging flow path for providing recharge solution to the sorbent module; and a processor programmed to set at least one recharge parameter for recharging of the at least one sorbent material based on one or more manufacturing characteristics of the sorbent material contained in the sorbent module, characterized in that the at least one recharge parameter comprises at least one of: time of recharging, recharge temperature, volume of at least one recharge solution, concentration of at least one recharge solution, and combinations thereof. a sorbent recharger , comprising a recharging flow path that is fluidly connectable to a sorbent module containing at least one sorbent material; at least one recharge solution source containing at least one recharge solution for recharging the at least one sorbent material within the sorbent module, the at least one recharge solution source fluidly connectable to a sorbent module inlet ; at least one pump in the recharging flow path for providing recharge solution to the sorbent module; and a processor programmed to set at least one recharge parameter for recharging of the at least one sorbent material based on one or more manufacturing characteristics of the sorbent material contained in the sorbent module, characterized in that the at least one recharge parameter comprises at least one of: time of recharging, recharge temperature, volume of at least one recharge solution, concentration of at least one recharge solution, and combinations thereof.
A minerals processing plant for recovering metal values from ore , the minerals processing plant comprising a flotation circuit and a dry grinding circuit preceding the flotation circuit , wherein the dry grinding circuit comprises a vertical roller mill or roller grinder , and a plurality of dry air particle separation devices between said vertical roller mill or roller grinder and the flotation circuit ; the dry air particle separation devices being configured to provide a dry fines stream , and a dry coarse stream , wherein the coarse stream is provided to the flotation circuit to recover said metal values, wherein the dry fines stream is combined with dewatered tailings derived from material leaving said flotation circuit , wherein the dry fines stream is combined with the dewatered tailings in a mixer , wherein the mixer is provided upstream of stacking equipment and/or a tailings pond , characterized in that a thickener is provided between the mixer and the flotation circuit , the thickener being configured to dewater the material leaving said flotation circuit and provide the dewatered tailings to the mixer , and wherein a filter is provided between the mixer and the thickener , the filter being configured to further dewater material leaving said thickener . wherein the coarse stream is provided to the flotation circuit to recover said metal values, wherein the dry fines stream is combined with dewatered tailings derived from material leaving said flotation circuit , wherein the dry fines stream is combined with the dewatered tailings in a mixer , wherein the mixer is provided upstream of stacking equipment and/or a tailings pond , characterized in that a thickener is provided between the mixer and the flotation circuit , the thickener being configured to dewater the material leaving said flotation circuit and provide the dewatered tailings to the mixer , and wherein a filter is provided between the mixer and the thickener , the filter being configured to further dewater material leaving said thickener .
An apparatus for heating and intermittent dispensing of water intended for human consumption comprising: - a container which has a level (L) and which has an opening which connects an inside of the container towards the outside environment (E) and which is positioned above the level (L); - an inlet conduit to the inside of the container which is configured for connection to a water supply (A) of water intended for human consumption; - an outlet conduit from the inside of the container for dispensing water into the outside environment (E); - heating means of fluids internally of the container ; - an overpressure valve which allows the flow only in outlet through the opening and when the pressure internally of the container exceeds an intervention value which is greater than the pressure of the outside environment (E); - one or more control units which control the heating means ; - first means for regulating the flow through the inlet conduit and - a level detector which detects the water in the liquid state (W) at the level (L), wherein: - the outlet conduit has the inlet below the level (L); - the one or more control units also control the first means and are configured in such a way that the first means close the inlet conduit when the level detector detects water in the liquid state (W) at the level (L), characterised in that the intervention value is lower than or equal to the pressure of the water supply (A) or the intervention value is a relative pressure, with respect to normal atmospheric pressure, positive and less than or equal to 0.05 MPa. - a container which has a level (L) and which has an opening which connects an inside of the container towards the outside environment (E) and which is positioned above the level (L); - an inlet conduit to the inside of the container which is configured for connection to a water supply (A) of water intended for human consumption; - an outlet conduit from the inside of the container for dispensing water into the outside environment (E); - heating means of fluids internally of the container ; - an overpressure valve which allows the flow only in outlet through the opening and when the pressure internally of the container exceeds an intervention value which is greater than the pressure of the outside environment (E); - one or more control units which control the heating means ; - first means for regulating the flow through the inlet conduit and - a level detector which detects the water in the liquid state (W) at the level (L), - the outlet conduit has the inlet below the level (L); - the one or more control units also control the first means and are configured in such a way that the first means close the inlet conduit when the level detector detects water in the liquid state (W) at the level (L),
A non-therapeutic method of providing an anti-microbial effect to skin comprising the steps of (i) applying a composition to the skin comprising a a polymer A selected from the group of polyacrylic acid or a copolymer thereof or a polyalkylene oxide having a molecular mass greater than 2×10 4 D, and b at least two essential oils selected from eugenol, thymol, and terpineol,; and (ii) waiting for at least 15 seconds. (i) applying a composition to the skin comprising a a polymer A selected from the group of polyacrylic acid or a copolymer thereof or a polyalkylene oxide having a molecular mass greater than 2×10 4 D, and b at least two essential oils selected from eugenol, thymol, and terpineol,; and a a polymer A selected from the group of polyacrylic acid or a copolymer thereof or a polyalkylene oxide having a molecular mass greater than 2×10 4 D, and b at least two essential oils selected from eugenol, thymol, and terpineol,; and (ii) waiting for at least 15 seconds.
Friction ring for a brake disc with at least one friction surface , which is intended for interacting with a brake lining , wherein the friction ring comprises a PMMC material (particle metal matrix composite), such as in particular an Al-MMC material, at least in the region of the friction surface , or consists thereof completely, characterized in that the friction surface has a multiplicity of microgrooves , which extend in a radially directed manner with respect to a circumferential direction of rotation of the friction ring , non-tangentially angled to the circumferential direction of rotation, that is to say at least with one component.
A medical device consisting in a linking drill guide , the linking drill guide comprising: a femoral portion , the femoral portion comprising a blade dimensioned to fit closely into a femoral resection slot of a distal femoral resection guide ; a tibial portion , the tibial portion having tubes defining tibial reference holes ; and a body connecting the femoral portion to the tibial portion ; characterized in that the tubes defining the tibial reference holes are recessed from a posterior distal end of the tibial portion of the linking drill guide . a femoral portion , the femoral portion comprising a blade dimensioned to fit closely into a femoral resection slot of a distal femoral resection guide ; a tibial portion , the tibial portion having tubes defining tibial reference holes ; and a body connecting the femoral portion to the tibial portion ; characterized in that the tubes defining the tibial reference holes are recessed from a posterior distal end of the tibial portion of the linking drill guide .
Delivery unit for an anode circuit of a fuel cell system for delivering a gaseous medium, in particular hydrogen, out of an anode region of a fuel cell , wherein the delivery unit comprises at least one recirculation blower , wherein the delivery unit is at least indirectly fluidically connected by means of at least one connecting line to the outlet of the anode region , and wherein the delivery unit is fluidically connected by means of a further connecting line to the inlet of the anode region , characterized in that the delivery unit has a jet pump , a dosing valve and a separator as further components in addition to the component of recirculation blower , wherein the flow contours of the components for the gaseous medium are arranged at least approximately entirely in a common housing , and wherein the recirculation blower has a compressor wheel with an encircling outer delimiting ring which runs rotationally symmetrically with respect to an axis of rotation of the compressor wheel , and wherein an at least partially encapsulated separation space is situated in the housing of the delivery unit on that side of the compressor wheel which is averted from the axis of rotation .
A method of evaluating a part, wherein a resonance inspection comprises exciting a part-under-test at a plurality of input frequencies and obtaining a frequency response of said part-under-test at each of said plurality of input frequencies, wherein a surface vibration inspection comprises vibrating said part-under-test and assessing surface vibrations of said part-under test, and wherein said method comprises the steps of: conducting a first inspection of a first part-under-test , wherein said first inspection comprises performing said resonance inspection on said first part-under-test; conducting a second inspection of said first part-under-test, wherein said second inspection comprises performing said surface vibration inspection on said first part-under-test; and evaluating said first part-under-test based upon each of said first and second inspections, the method being characterised in that : said first part-under-test comprises a plurality of similarly configured/sized fins, or a plurality of similarly configured/sized blades mounted on a common body, wherein said evaluating step comprises conducting a separate said resonance inspection on each of said fins or blades in response to at least one of said first and second inspections identifying an anomaly in results from said first and second inspections. conducting a first inspection of a first part-under-test , wherein said first inspection comprises performing said resonance inspection on said first part-under-test; conducting a second inspection of said first part-under-test, wherein said second inspection comprises performing said surface vibration inspection on said first part-under-test; and evaluating said first part-under-test based upon each of said first and second inspections, the method being characterised in that : said first part-under-test comprises a plurality of similarly configured/sized fins, or a plurality of similarly configured/sized blades mounted on a common body, wherein said evaluating step comprises conducting a separate said resonance inspection on each of said fins or blades in response to at least one of said first and second inspections identifying an anomaly in results from said first and second inspections.
A heater base for supplying humidified gases to a patient, the heater base comprising: a base portion , the base portion including a recessed region; a heater plate positioned in the recessed region, the heater plate being configured to contact a heat conductive portion of a removable humidification chamber ; a guard extending along a front portion of the base portion and having a first end and a second end, the guard being configured to move between a depressed position in which the guard allows the removable humidification chamber to access the heater plate and the recessed region, and a non-depressed position in which the guard retains the removable humidification chamber against removal from the heater base ; and characterized in that the heater base comprises an anti-racking mechanism coupled to the guard and configured to allow the guard to translate vertically, the anti-racking mechanism cooperating with the guard to cause vertical movement of the first end to translate into coordinated vertical movement of the second end. a base portion , the base portion including a recessed region; a heater plate positioned in the recessed region, the heater plate being configured to contact a heat conductive portion of a removable humidification chamber ; a guard extending along a front portion of the base portion and having a first end and a second end, the guard being configured to move between a depressed position in which the guard allows the removable humidification chamber to access the heater plate and the recessed region, and a non-depressed position in which the guard retains the removable humidification chamber against removal from the heater base ; and characterized in that the heater base comprises an anti-racking mechanism coupled to the guard and configured to allow the guard to translate vertically, the anti-racking mechanism cooperating with the guard to cause vertical movement of the first end to translate into coordinated vertical movement of the second end.
Suction device with a suction unit for generating a suction flow and with a vacuum cleaner housing , in which a dirt collecting chamber having a suction inlet and flow-connected to the suction unit via at least one filter and an extraction passage assembly is located, wherein at least one external air inlet closable by an external air valve is located at the extraction passage assembly between the filter and the suction device , wherein the external air valve has an external air valve body for blocking the external air inlet , which external air valve body is movable between a closed position (L) blocking the external air inlet and a flow position (O) opening the external air inlet , in which external air (F) entering through the external air inlet flows through the at least one filter in the direction of the dirt collecting chamber for cleaning, wherein the suction device has a pressure control device for applying a vacuum (U) to an actuating surface connected to the external air valve body for moving the external air valve body in the direction of the closed position (L) or for holding the external air valve body in the closed position (L), characterised in that the pressure control device is provided or designed for applying a vacuum (U) to the actuating surface connected to the external air valve body to move the external air valve body in the direction of the closed position (L) or to hold the external air valve body in the closed position (L) against a force (FO) acting on the external air valve body in the direction of the flow position (O), wherein the force (FO) comprises a vacuum (U2) generated by the suction unit in particular and acting on the external air valve body in the direction of the flow position (O) or is a vacuum force.
Magnetic core for an inductive component, produced by thin-film technology, wherein the magnetic core consists of at least two different magnetic materials , wherein the magnetic core forms a closed ring, wherein the ring has a circular, oval, elliptical, square or rectangular shape, wherein the different magnetic materials are selected from the materials Ni, NiFe, CoFe, CoP and CoZrTi, wherein, in a first embodiment, seen over the length the different magnetic materials alternate and respectively take up the complete cross section of the magnetic core , or wherein, in a second embodiment, the magnetic core is formed by means of at least an inner ring of a first magnetic material and an outer ring of a second magnetic material , and the different magnetic materials respectively extend over the entire length of the magnetic core and a cross section of the magnetic core is formed from different magnetic materials .
An adaptive deployable restraint element for a vehicle safety system for protecting a vehicle occupant in a vehicle composing at least two leg elements at least in portions arranged substantially in V-shape relative to each other each with a base end and a point opposed to the base end between which at least one cross brace is arranged for connecting the leg elements , wherein the leg elements and/or the cross brace are/is inflatable, characterized in that the base ends can be or are fixed within the vehicle in a stationary manner and the leg elements are arranged such that they form a front-side leg element and a rear-side leg element , of which the front-side leg element faces the vehicle occupant and the rear-side leg element is turned away from the vehicle occupant.
A lyophilized composition comprising an antibody-drug conjugate of formula (I), a buffering agent, a lyoprotectant, and a surfactant wherein the molar ratio of lyoprotectant to antibody-drug conjugate is 1,400-3,200 to 1, and wherein the lyoprotectant is trehalose.
Use of at least one compound of the following formula I wherein R is selected from the class formed by methyl, 2-(diethylamino)-ethyl, butyl, glycidyl, ethyl, benzyl, lauryl, allyl, stearyl, hydroxypropyl, isobutyl, phenyl, isobornyl, cyclohexyl, propyl, tert-butyl, sec-butyl, n-propyl and at least one amine, selected from the class formed by ethylenediamine, monoethanolamine, dimethylisopropanolamine, and dimethylaminopropylamine as H 2 S scavenger in water and hydrocarbon fluids and gases present in crude oil extraction and refining processes.
A non-transitory storage medium storing instructions readable and executable by an electronic processor to perform a method for estimating singles rates for detectors of a detector array of a positron emission tomography, PET, imaging device , the method comprising: obtaining measured delayed coincidence rates for lines of response, LORs, defined by pairs of the detectors of the detector array; and generating estimated singles rates for the detectors of the detector array by an iterative optimization in which each iteration performs an update of estimates of the singles rates for the detectors by repeating operations including: forward projecting the estimates of the singles rates for the detectors to generate estimates of delayed coincidence rates for the LORs; generating quantitative comparisons between the measured delayed coincidence rates for the LORs and the generated estimates of the delayed coincidence rates for the LORs; backprojecting the quantitative comparisons to generate corrections for the singles rates for the detectors; updating the estimates of the singles rates for the detectors using the generated corrections, wherein the generated estimated singles rates for the detectors of the detectors array comprise the estimates of the singles rates for the detectors output by the iterative optimization when the iterative optimization satisfies a stopping criterion ; and generating low-noise values for the random coincidences rates from the generated estimates of the singles rates. obtaining measured delayed coincidence rates for lines of response, LORs, defined by pairs of the detectors of the detector array; and generating estimated singles rates for the detectors of the detector array by an iterative optimization in which each iteration performs an update of estimates of the singles rates for the detectors by repeating operations including: forward projecting the estimates of the singles rates for the detectors to generate estimates of delayed coincidence rates for the LORs; generating quantitative comparisons between the measured delayed coincidence rates for the LORs and the generated estimates of the delayed coincidence rates for the LORs; backprojecting the quantitative comparisons to generate corrections for the singles rates for the detectors; updating the estimates of the singles rates for the detectors using the generated corrections, wherein the generated estimated singles rates for the detectors of the detectors array comprise the estimates of the singles rates for the detectors output by the iterative optimization when the iterative optimization satisfies a stopping criterion ; and generating low-noise values for the random coincidences rates from the generated estimates of the singles rates.