mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an enclosure designed to house electronics; and a ventilation plug fastened to an exterior of the enclosure, wherein the ventilation plug is adapted for hermeticity testing of the enclosure and is configured to maintain gas-pressure equilibrium inside the enclosure and to inject gas into the enclosure when a gas source is connected thereto, the ventilation plug comprising: a first section designed to insert into the enclosure; and a second section designed to provide a sealed connection to an adapter, wherein the second section is designed to receive pressurized gas via the adapter and to transfer the pressurized gas into the enclosure; characterised in that the ventilation plug further comprises a vent filter comprising a membrane designed to allow bidirectional flow of gas while preventing moisture and / or dirt from passing through; and at least one bypass airway allowing gas to bypass the vent filter into the enclosure. an enclosure designed to house electronics; and a ventilation plug fastened to an exterior of the enclosure, wherein the ventilation plug is adapted for hermeticity testing of the enclosure and is configured to maintain gas-pressure equilibrium inside the enclosure and to inject gas into the enclosure when a gas source is connected thereto, the ventilation plug comprising: a first section designed to insert into the enclosure; and a second section designed to provide a sealed connection to an adapter, a first section designed to insert into the enclosure; and a second section designed to provide a sealed connection to an adapter, wherein the second section is designed to receive pressurized gas via the adapter and to transfer the pressurized gas into the enclosure; characterised in that the ventilation plug further comprises a vent filter comprising a membrane designed to allow bidirectional flow of gas while preventing moisture and / or dirt from passing through; and at least one bypass airway allowing gas to bypass the vent filter into the enclosure.
A candle wick assembly comprising: a multiple candle wick construction ; and a wax sheath covering the multiple candle wick construction , wherein the multiple candle wick construction comprises: (i) at least first and second spaced-apart candle wicks ; and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly , wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, wherein the crossing portions include a generally concave central region when the candle wick assembly is in the generally U-shaped configuration, and wherein the wax sheath includes a concavity generally corresponding to the concave central region of the crossing portions extending along the lengthwise direction of the wick assembly. a multiple candle wick construction ; and a wax sheath covering the multiple candle wick construction , the multiple candle wick construction comprises: (i) at least first and second spaced-apart candle wicks ; and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly , wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, (i) at least first and second spaced-apart candle wicks ; and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly , wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, wherein the crossing portions include a generally concave central region when the candle wick assembly is in the generally U-shaped configuration, and wherein the wax sheath includes a concavity generally corresponding to the concave central region of the crossing portions extending along the lengthwise direction of the wick assembly.
A fixing member comprising: a base member, an elastic layer provided on the surface of the base member, and a surface layer, wherein; the surface layer contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula , and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m. a base member, an elastic layer provided on the surface of the base member, and a surface layer, wherein; the surface layer contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula , and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m. contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula , and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m.
A method of integrity testing a porous material, comprising: providing a porous material to be tested, said porous material having a first surface and a second surface; wetting said porous material with a wetting liquid; providing a gas stream comprising at least first and second gases humidified with said wetting liquid near the saturation vapor pressure of said wetting liquid; removing moisture of the permeate stream exiting said second surface of said porous material and creating a pressure differential; introducing said gas stream to said first surface of said porous material; causing said first and second gases to flow through said porous material; measuring the concentration of at least one of said moisture-removed first and second gases in the permeate stream exiting said second surface of said porous material; and comparing the measured concentration to a predetermined concentration; wherein a difference between said measured concentration and said predetermined concentration is indicative of said porous material being non-integral, wherein said humidified gas stream has a humidity of about 90-99%. providing a porous material to be tested, said porous material having a first surface and a second surface; wetting said porous material with a wetting liquid; providing a gas stream comprising at least first and second gases humidified with said wetting liquid near the saturation vapor pressure of said wetting liquid; removing moisture of the permeate stream exiting said second surface of said porous material and creating a pressure differential; introducing said gas stream to said first surface of said porous material; causing said first and second gases to flow through said porous material; measuring the concentration of at least one of said moisture-removed first and second gases in the permeate stream exiting said second surface of said porous material; and comparing the measured concentration to a predetermined concentration; wherein a difference between said measured concentration and said predetermined concentration is indicative of said porous material being non-integral, wherein said humidified gas stream has a humidity of about 90-99%.
Composite containing at least two layers, one layer comprising a carbon-based felt material, characterised in that the at least two layers are connected via at least one CFC screw which has a thread that cuts into the felt material, CFC being understood to mean carbon fiber reinforced carbon.
A method for numerical analysis of a wound for the automatic determination of information relating to said wound, including steps to - Acquire (E1) a digital image of an area of skin containing said wound, - Determine (E6a) a first likelihood map associated with a first characteristic of said area by using a first classifier on said image, - Determine (E6b) a second likelihood map associated with a second characteristic of said area, by using a second classifier, distinct from said first classifier, on said image, - Segment (E9) said image into homogeneous colour regions; - Match (E10) said regions with said first and second likelihood maps, and adapt said regions in order to determine regions substantially corresponding to said wound, - Determine said information from said regions substantially corresponding to said wound, method wherein said first likelihood map and said second likelihood map are combined (E8) into a global likelihood map in order to match said regions with said first and second likelihood maps and wherein in said global likelihood map, the points corresponding to necrosis are determined by a segmentation based on a colorimetric thresholding. - Acquire (E1) a digital image of an area of skin containing said wound, - Determine (E6a) a first likelihood map associated with a first characteristic of said area by using a first classifier on said image, - Determine (E6b) a second likelihood map associated with a second characteristic of said area, by using a second classifier, distinct from said first classifier, on said image, - Segment (E9) said image into homogeneous colour regions; - Match (E10) said regions with said first and second likelihood maps, and adapt said regions in order to determine regions substantially corresponding to said wound, - Determine said information from said regions substantially corresponding to said wound,
A taxoid compound represented by the formula: wherein: R 1 represents a methyl group or a fluorine; R 2 represents tert-butyl; R 3 represents acetyl, propanoyl, cyclopropanecarbonyl, N,N-dimethylcarbamoyl, or methoxycarbonyl; R 4 represents hydrogen or a methyl group; and X represents hydrogen or fluorine. R 1 represents a methyl group or a fluorine; R 2 represents tert-butyl; R 3 represents acetyl, propanoyl, cyclopropanecarbonyl, N,N-dimethylcarbamoyl, or methoxycarbonyl; R 4 represents hydrogen or a methyl group; and X represents hydrogen or fluorine.
A microwave/millimeter wave sensor apparatus, comprising: a radiation type oscillator (S1) having a configuration of a three-electrode high-frequency amplifying device having a resonator , which generates a negative resistance and resultant microwave/millimeter wave oscillation, and which functions as an antenna to emit electromagnetic waves to space and to receive electromagnetic waves from space, and said resonator being designed for the oscillation frequency of the radiation type oscillator, wherein a radiation wave of the radiation type oscillator (S1) is a transmit RF signal, and a reflected wave from a measured object reflecting the transmit RF signal is a receive RF signal, said radiation type oscillator (S1) receiving the receive RF signal and obtaining an IF signal through homodyne mixing performed by the radiation type oscillator (S1); and a signal analysis processing unit (P) for analyzing and processing the IF signal amplified by amplification gain from DC to IF bands of the three-electrode high-frequency amplifying device oscillating in an RF band, thereby sensing the measured object. a radiation type oscillator (S1) having a configuration of a three-electrode high-frequency amplifying device having a resonator , which generates a negative resistance and resultant microwave/millimeter wave oscillation, and which functions as an antenna to emit electromagnetic waves to space and to receive electromagnetic waves from space, and said resonator being designed for the oscillation frequency of the radiation type oscillator, wherein a radiation wave of the radiation type oscillator (S1) is a transmit RF signal, and a reflected wave from a measured object reflecting the transmit RF signal is a receive RF signal, said radiation type oscillator (S1) receiving the receive RF signal and obtaining an IF signal through homodyne mixing performed by the radiation type oscillator (S1); and a signal analysis processing unit (P) for analyzing and processing the IF signal amplified by amplification gain from DC to IF bands of the three-electrode high-frequency amplifying device oscillating in an RF band, thereby sensing the measured object.
Rotor for an electrical machine, comprising a lamination body which has a plurality of magnet receptacles , and a plurality of magnets which are arranged in the magnet receptacles of the lamination body and are oriented in the radial direction, wherein • the lamination body has a main body with an internal fastening region and struts , wherein the struts extend in the radial direction (), • the lamination body has free pole elements between two adjacent struts , and • the magnet receptacles are arranged between a strut and a free pole element , • wherein the lamination body can be at least indirectly connected to a shaft at the internal fastening region , and that an internal cavity is formed between the internal fastening region and at least one magnet , wherein two magnet receptacles adjoin the internal cavity , in each case one magnet being arranged in each of the said two magnet receptacles, and that the magnet receptacles are spaced apart from one another by a free pole element of the lamination body , characterized in that the internal cavity is at least substantially filled with a filling compound , and the cavities which are formed between the lamination body and the magnets are at least partially filled with at least the filling compound , wherein radial gaps which remain between the lamination body and the magnets are at least partially filled with the filling compound , as a result of which the magnets and the free pole element are reliably fixed by means of the filling compound . • the lamination body has a main body with an internal fastening region and struts , wherein the struts extend in the radial direction (), • the lamination body has free pole elements between two adjacent struts , and • the magnet receptacles are arranged between a strut and a free pole element , • wherein the lamination body can be at least indirectly connected to a shaft at the internal fastening region , and that an internal cavity is formed between the internal fastening region and at least one magnet , wherein two magnet receptacles adjoin the internal cavity , in each case one magnet being arranged in each of the said two magnet receptacles, and that the magnet receptacles are spaced apart from one another by a free pole element of the lamination body ,
Method for the production of a dental article, the method comprising: - performing a three-dimensional scan of a portion of a dental arch including at least part of a tooth; - generating a first file containing a three-dimensional model of the at least part of tooth scanned, said three-dimensional model comprising (i) spatial coordinates, in a three-dimensional space having an elevation axis Z, of a plurality of points belonging to an outer surface of the at least part of the tooth scanned and (ii) a colour of the outer surface associated with each point of the plurality; - processing the first file by associating a same colour with all the points having the same coordinate value in the elevation axis Z, thereby obtaining a second file; - sending the second file to a laser stereolithography machine ; - obtaining a stereolithographic model of said at least part of tooth based on said second file by subsequent polymerization of layers of a liquid material arranged along the elevation axis Z, so as to obtain the stereolithographic model having for each coordinate value in the elevation axis Z a same colour as present in said second file which includes: ∘ injecting for each layer a first and a second liquid material of two different colour so as to generate said same colour; and ∘ scanning the layer of liquid substance by means of a laser , polymerizing it. - performing a three-dimensional scan of a portion of a dental arch including at least part of a tooth; - generating a first file containing a three-dimensional model of the at least part of tooth scanned, said three-dimensional model comprising (i) spatial coordinates, in a three-dimensional space having an elevation axis Z, of a plurality of points belonging to an outer surface of the at least part of the tooth scanned and (ii) a colour of the outer surface associated with each point of the plurality; - processing the first file by associating a same colour with all the points having the same coordinate value in the elevation axis Z, thereby obtaining a second file; - sending the second file to a laser stereolithography machine ; - obtaining a stereolithographic model of said at least part of tooth based on said second file by subsequent polymerization of layers of a liquid material arranged along the elevation axis Z, so as to obtain the stereolithographic model having for each coordinate value in the elevation axis Z a same colour as present in said second file which includes: ∘ injecting for each layer a first and a second liquid material of two different colour so as to generate said same colour; and ∘ scanning the layer of liquid substance by means of a laser , polymerizing it. ∘ injecting for each layer a first and a second liquid material of two different colour so as to generate said same colour; and ∘ scanning the layer of liquid substance by means of a laser , polymerizing it.
A composition comprising an mRNA encoding a Cystic Fibrosis Transmembrane Conductance Regulator (CFTR) protein for use in a method of treating cystic fibrosis (CF) in a human subject, wherein the method comprises administration of the composition by nebulization at a dose between 13 mg and 19 mg that provides the human subject with at least a 3% increase in absolute change in ppFEV1 (percent predicted forced expiratory volume in one second) from baseline ppFEV1 at two days following the administration, wherein the mRNA is encapsulated in lipid nanoparticles.
A computer-implemented method for performing a sequential equivalency check for analysis of fault propagation comprising: injecting a fault; identifying, among a plurality of registers, a first set of registers in which the injected fault cannot propagate and a second set of registers in which the injected fault can propagate; wherein for each register of the plurality of registers, the identification comprises running an update function and assigning the register to the second set of registers if the register changes as a result of the update function and assigning the register to the first set if the register does not change as a result of the update function; and duplicating the second set of registers to derive a reduced stated duplication for performing equivalence checking. injecting a fault; identifying, among a plurality of registers, a first set of registers in which the injected fault cannot propagate and a second set of registers in which the injected fault can propagate; wherein for each register of the plurality of registers, the identification comprises running an update function and assigning the register to the second set of registers if the register changes as a result of the update function and assigning the register to the first set if the register does not change as a result of the update function; and duplicating the second set of registers to derive a reduced stated duplication for performing equivalence checking.
Hose pump for conveying a fluid guided in a hose , with a hose bed having a counter bearing , a carrier disc rotatable relative to the counter bearing , a plurality of pinch rollers arranged equidistantly to one another in the circumferential direction on the carrier disc and a plurality of guide rollers arranged equidistantly to one another in the circumferential direction on the carrier disc , wherein a respective guide roller is arranged between two successive pinch rollers in the circumferential direction of the carrier disc and, when the carrier disc rotates in a conveying direction (F), the pinch rollers are pressing a hose inserted into the hose bed against the counter bearing and pinching the hose, in order to transport the fluid in the hose in the conveying direction, wherein the angular distance (Δ) between a guide roller and the pinch roller preceding this guide roller in the conveying direction (F) is greater than the angular distance (δ) between this guide roller and the pinch roller following this guide roller in the conveying direction (F), characterised in that a cylinder with a lateral surface projecting above the surface of the carrier disc is arranged in the center of the carrier disc coaxially to an axis of rotation (A), wherein the outer diameter (D) of the cylinder extends at least approximately to the outer circumference of the pinch rollers and guide rollers located radially further outwards, and the radial distance between the circumferential surface of the cylinder and the outer circumference of the guide rollers is smaller than the diameter of the hose inserted into the hose bed .