mhurhangee/patent-ind-claim-en huggingface dataset:
Plugging device comprising: - a housing ; - a packer device provided circumferentially around the housing ; where the packer device comprises a packer body and a supporting device for supporting the packer body in the expanded state; where the packer device is configured to be provided in a retracted state and an expanded state, where the radial radius (R2) of the packer body in the expanded state is larger than the radial radius (R1) of the packer body in the retracted state; - a first supporting assembly supporting a first side of the packer device in the expanded state; - a second supporting assembly supporting a second side of the packer device in the expanded state; where the first and second sides of the packer device and/or the supporting device have the same circumference (C) in the retracted state and the expanded state, where the circumference (C) is larger than the circumference (C 10 ) of the housing and where the packer body is oval or wave-shaped in the retracted state, and cylindrical in the expanded state; characterized in that : - the supporting device comprises a chain comprising interconnected chain elements ; where the chain elements comprise an outwardly curved front end and an inwardly curved rear end , where the front end is adapted to be received by the rear end of an adjacent chain element . - a housing ; - a packer device provided circumferentially around the housing ; where the packer device comprises a packer body and a supporting device for supporting the packer body in the expanded state; where the packer device is configured to be provided in a retracted state and an expanded state, where the radial radius (R2) of the packer body in the expanded state is larger than the radial radius (R1) of the packer body in the retracted state; - a first supporting assembly supporting a first side of the packer device in the expanded state; - a second supporting assembly supporting a second side of the packer device in the expanded state; - the supporting device comprises a chain comprising interconnected chain elements ; where the chain elements comprise an outwardly curved front end and an inwardly curved rear end , where the front end is adapted to be received by the rear end of an adjacent chain element .
A device for disinfecting liquids (F) using UV radiation (UV), comprising a cylindrical hollow container having a cylinder axis (Z) with inlet and outlet openings at the same first closing end of the container for letting in the liquid (F) to be disinfected and for letting out the disinfected liquid (F), wherein a UV lamp in a liquid-tight lamp envelop of a at least UV transparent material is arranged within the container and extends along the cylinder axis (Z) towards a second end of the container being opposite to the first end , and comprising an ultrasound probe with an ultrasound-emitting surface at the second end facing the lamp envelope for emitting an ultrasonic wave (US) along the lamp envelope , wherein the cylinder axis (Z) preferably passes at a right angel through the emitting surface of the ultrasound probe , characterized in that the device further comprises a cylindrical liquid guiding sheet arranged in radial direction from the cylinder axis (Z) between lamp envelope and container , the sheet exterior facing the container forming a feed gap (ZS) from the inlet opening to the lamp envelope and the sheet interior forming a return channel (RK) of the liquid (F) along the lamp envelope to the outlet opening , and that the material of the liquid guiding sheet is fabricated of stainless steel AISI 316L.
An insulated-well immersion cooling enclosure , comprising: a well formed in a substrate material, the well having a first surface at a first elevation, a second surface at a second elevation that is lower than the first elevation, and side surfaces extending between the first and second surfaces; a lid in contact with and fastened to the first surface of the well, the lid, the second surface of the well, and the side surfaces of the well enclosing an internal space configured to contain a dielectric coolant submerging one or more computing devices in the internal space; and an insulating liner on the second surface and the side surfaces of the well, the insulating liner having a first side in contact with the dielectric coolant and a second side in contact with the substrate material at the second surface and the side surfaces of the well, wherein the insulating liner includes an insulating layer constructed from a polymeric material that is non-permeable to the dielectric coolant, thereby preventing the dielectric coolant from passing through the insulating liner to the substrate material. a well formed in a substrate material, the well having a first surface at a first elevation, a second surface at a second elevation that is lower than the first elevation, and side surfaces extending between the first and second surfaces; a lid in contact with and fastened to the first surface of the well, the lid, the second surface of the well, and the side surfaces of the well enclosing an internal space configured to contain a dielectric coolant submerging one or more computing devices in the internal space; and an insulating liner on the second surface and the side surfaces of the well, the insulating liner having a first side in contact with the dielectric coolant and a second side in contact with the substrate material at the second surface and the side surfaces of the well, wherein the insulating liner includes an insulating layer constructed from a polymeric material that is non-permeable to the dielectric coolant, thereby preventing the dielectric coolant from passing through the insulating liner to the substrate material.
A camera lens system comprising: a lens having a pair of first and second opposed axial faces, and a circumferential edge between the faces; a lens mount having an inner surface circumscribing at least a portion of the lens edge; a first mounting ring in abutting contact with the lens only along its first axial face; and a biasing element coupled to the lens mount, for exerting axially oriented biasing force on the first lens face through the first mounting ring, wherein the biasing element comprises a compression spring , wherein the lens, lens mount, first mounting ring, and biasing element are constructed of materials capable of continuous operation at temperatures greater than 600 degrees Celsius (1112 degrees Fahrenheit), wherein the camera lens system allows different rates of axial expansion and contraction of the lens, lens mount, and first mounting ring, wherein the first mounting ring comprises: a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof. a lens having a pair of first and second opposed axial faces, and a circumferential edge between the faces; a lens mount having an inner surface circumscribing at least a portion of the lens edge; a first mounting ring in abutting contact with the lens only along its first axial face; and a biasing element coupled to the lens mount, for exerting axially oriented biasing force on the first lens face through the first mounting ring, wherein the biasing element comprises a compression spring , wherein the lens, lens mount, first mounting ring, and biasing element are constructed of materials capable of continuous operation at temperatures greater than 600 degrees Celsius (1112 degrees Fahrenheit), wherein the camera lens system allows different rates of axial expansion and contraction of the lens, lens mount, and first mounting ring, wherein the first mounting ring comprises: a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof. a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof.
A luminescent material comprising: a host lattice comprising one of a trigonal planar BeN 3 structure and a tetrahedral Be(N,O) 4 structure; and a dopant species. a host lattice comprising one of a trigonal planar BeN 3 structure and a tetrahedral Be(N,O) 4 structure; and a dopant species.
A method for manufacturing a white pigment dispersion comprising a) manufacturing low effective density TiO 2 by a method comprising: providing a template having a surface; coating the template surface with a titanium-containing compound that can be reduced to TiO 2 at high temperature; and removing the template, thereby forming porous TiO 2 particles, this method comprising providing a bubble nucleating agent; combining the titanium-containing compound with the bubble nucleation agent and stirring to form the template, which comprises oxygen bubbles, coated with TiO(OH) 2 ; removing water; and removing the oxygen bubble template, thereby forming porous TiO 2 particles, wherein the effective density of TiO 2 is less than 4, and b) forming the white pigment dispersion by combining the low effective density TiO 2 , a latex and a dispersing medium, such that the white pigment dispersion contains: 10 to 60 wt% of the low effective density porous TiO 2 ; 1 to 40 wt% of the latex; and balance the dispersing medium. a) manufacturing low effective density TiO 2 by a method comprising: providing a template having a surface; coating the template surface with a titanium-containing compound that can be reduced to TiO 2 at high temperature; and removing the template, thereby forming porous TiO 2 particles, this method comprising providing a bubble nucleating agent; combining the titanium-containing compound with the bubble nucleation agent and stirring to form the template, which comprises oxygen bubbles, coated with TiO(OH) 2 ; removing water; and removing the oxygen bubble template, thereby forming porous TiO 2 particles, wherein the effective density of TiO 2 is less than 4, and providing a template having a surface; coating the template surface with a titanium-containing compound that can be reduced to TiO 2 at high temperature; and removing the template, thereby forming porous TiO 2 particles, this method comprising providing a bubble nucleating agent; combining the titanium-containing compound with the bubble nucleation agent and stirring to form the template, which comprises oxygen bubbles, coated with TiO(OH) 2 ; removing water; and removing the oxygen bubble template, thereby forming porous TiO 2 particles, wherein the effective density of TiO 2 is less than 4, and b) forming the white pigment dispersion by combining the low effective density TiO 2 , a latex and a dispersing medium, such that the white pigment dispersion contains: 10 to 60 wt% of the low effective density porous TiO 2 ; 1 to 40 wt% of the latex; and balance the dispersing medium. 10 to 60 wt% of the low effective density porous TiO 2 ; 1 to 40 wt% of the latex; and balance the dispersing medium.
A composition for silencing a target gene, genetic element or splicing variant, wherein the composition comprises a combination of artificial transcription repressors (ATRs) selected from the group consisting of: (a) and (b); (a) and (c); (b) and (c); (b) and (d); and (c) and (d); or polynucleotides encoding therefor, wherein: (a) is an ATR comprising a DNA-binding domain operably linked to a KRAB domain; (b) is an ATR comprising a DNA-binding domain operably linked to a DNMT3A, DNMT3B or DNMT1 domain; (c) is an ATR comprising a DNA-binding domain operably linked to a DNMT3L domain; and (d) is an ATR comprising a DNA-binding domain operably linked to a SETDB1 domain, and wherein the DNA-binding domains of the different ATRs: (i) bind to binding sites independently selected from the group consisting of: a binding site within the target gene or genetic element; a binding site within a regulatory sequence for the target gene; and a binding site within a splicing site for the target gene; and (ii) bind to different binding sites or to the same binding site. (a) is an ATR comprising a DNA-binding domain operably linked to a KRAB domain; (b) is an ATR comprising a DNA-binding domain operably linked to a DNMT3A, DNMT3B or DNMT1 domain; (c) is an ATR comprising a DNA-binding domain operably linked to a DNMT3L domain; and (d) is an ATR comprising a DNA-binding domain operably linked to a SETDB1 domain, (i) bind to binding sites independently selected from the group consisting of: a binding site within the target gene or genetic element; a binding site within a regulatory sequence for the target gene; and a binding site within a splicing site for the target gene; and (ii) bind to different binding sites or to the same binding site.
A method of transmitting a sidelink synchronization signal and a Physical Sidelink Broadcast Channel, PSBCH, in a wireless communication system, the method comprising: mapping (S3801) the sidelink synchronization signal to a physical resource; mapping (S3801) the PSBCH to the physical resource; and transmitting, to a user equipment, UE , the sidelink synchronization signal and the PSBCH, characterized in that the sidelink synchronization signal is mapped to fewer subcarriers than the PSBCH. mapping (S3801) the sidelink synchronization signal to a physical resource; mapping (S3801) the PSBCH to the physical resource; and transmitting, to a user equipment, UE , the sidelink synchronization signal and the PSBCH, characterized in that the sidelink synchronization signal is mapped to fewer subcarriers than the PSBCH.
A computer-implemented method, comprising: receiving image data of a graphical rendering of a resource available at a uniform resource locator, URL; computing a computer vision vector representation of the image data by passing the image data through a convolutional neural network, wherein the convolutional neural network is trained using metric learning; comparing the computer vision vector representation of the image data to a plurality of stored numeric vectors representing page elements, resulting in a feature indicating whether the computer vision vector representation of the image data is visually similar to a known page element; inputting the feature indicating whether the computer vision vector representation of the image data is visually similar to the known page element to a classifier; receiving , from the classifier, a phish classification score indicating a likelihood that the URL is malicious; and in response to determining that the phish classification score exceeds a first phish classification threshold, causing a cybersecurity server to perform a first action. receiving image data of a graphical rendering of a resource available at a uniform resource locator, URL; computing a computer vision vector representation of the image data by passing the image data through a convolutional neural network, wherein the convolutional neural network is trained using metric learning; comparing the computer vision vector representation of the image data to a plurality of stored numeric vectors representing page elements, resulting in a feature indicating whether the computer vision vector representation of the image data is visually similar to a known page element; inputting the feature indicating whether the computer vision vector representation of the image data is visually similar to the known page element to a classifier; receiving , from the classifier, a phish classification score indicating a likelihood that the URL is malicious; and in response to determining that the phish classification score exceeds a first phish classification threshold, causing a cybersecurity server to perform a first action.
Use of a medium for improving the heat transfer coefficient of the tube on the steam/water phase in steam generating plants comprising at least one film-forming amine (component a) with the general formula: a. R- (NH-(CH 2 ) m ) n -NH 2 , wherein R is an aliphatic hydrocarbon radical with a chain length between 12 and 22, and m is a whole number between 1 and 8 and n is a whole number between 0 and 7 in amounts of up to 15% by weight, wherein the concentration of the film-forming amine (component a) in the condensate is in the range of 0.05 to 2 ppm. a. R- (NH-(CH 2 ) m ) n -NH 2 , wherein R is an aliphatic hydrocarbon radical with a chain length between 12 and 22, and m is a whole number between 1 and 8 and n is a whole number between 0 and 7 in amounts of up to 15% by weight, wherein the concentration of the film-forming amine (component a) in the condensate is in the range of 0.05 to 2 ppm.
A method for the reduction of the volume of a sample comprising at least one at least partially liquid component and having a volume up to 10 mL; the method comprises using at least one container having an inner space, a first closed end , a second end provided with an opening , which establishes a connection between the inner space and the outside, and at least one side wall , which extends between the first closed end and the second end ; the inner space is delimited by the side wall and by the first closed end ; the method being characterized in that it comprises an acceleration step, during which a manipulation assembly moves the container containing the sample subjecting the container to an acceleration which has at least one component that is orientated from the second end towards the first closed end and is transverse (in particular, perpendicular) to said opening , so that a first part of said at least partially liquid component flows out of the container flowing through said opening and a second part of said at least partially liquid component with a substantially defined volume remains in the container , at said first closed end ; wherein the manipulation assembly comprises a moving device , which, during the acceleration step, rotates the container around a rotation axis (A) so that the centrifugal force causes said first part of said at least partially liquid component to flow out of the container going through said opening ; during the acceleration step, the rotation axis (A) extends through the container between the first closed end and the second end . the method being characterized in that it comprises an acceleration step, during which a manipulation assembly moves the container containing the sample subjecting the container to an acceleration which has at least one component that is orientated from the second end towards the first closed end and is transverse (in particular, perpendicular) to said opening , so that a first part of said at least partially liquid component flows out of the container flowing through said opening and a second part of said at least partially liquid component with a substantially defined volume remains in the container , at said first closed end ; wherein the manipulation assembly comprises a moving device , which, during the acceleration step, rotates the container around a rotation axis (A) so that the centrifugal force causes said first part of said at least partially liquid component to flow out of the container going through said opening ; during the acceleration step, the rotation axis (A) extends through the container between the first closed end and the second end .
A compound for use as a medicament in the form of a composition or formulation for prevention and/or treatment of hyperbilirubinemia, wherein the compound is phenylethyl isothiocyanate, wherein the hyperbilirubinemia is selected from the group consisting of hemolytic jaundice, hepatic jaundice, cholestasis, gilbert syndrome, and combinations thereof.
Method for detecting a load on a rotor blade of a wind turbine , the method comprising the following steps: deriving a deflection of the rotor blade from an acceleration value which represents an acceleration on the rotor blade , the acceleration value being integrated twice in order to obtain the deflection ; determining a signal drift component of the deflection using an absolute value which represents an absolute measured value of an absolute sensor on the rotor blade by comparing the deflection with a strain value as the absolute value in order to obtain the signal drift component , the strain value representing a strain of the rotor blade that can be detected by a strain gauge on the rotor blade , or by comparing the deflection with a position value as the absolute value in order to obtain the signal drift component , the position value representing a position of the rotor blade that can be detected by a camera system on the rotor blade ; and ascertaining the load using the signal drift component and the deflection and also material characteristic values of the rotor blade by subtracting the signal drift component from the deflection in order to obtain a stabilized deflection value for ascertaining the load. deriving a deflection of the rotor blade from an acceleration value which represents an acceleration on the rotor blade , the acceleration value being integrated twice in order to obtain the deflection ; determining a signal drift component of the deflection using an absolute value which represents an absolute measured value of an absolute sensor on the rotor blade by comparing the deflection with a strain value as the absolute value in order to obtain the signal drift component , the strain value representing a strain of the rotor blade that can be detected by a strain gauge on the rotor blade , or by comparing the deflection with a position value as the absolute value in order to obtain the signal drift component , the position value representing a position of the rotor blade that can be detected by a camera system on the rotor blade ; and ascertaining the load using the signal drift component and the deflection and also material characteristic values of the rotor blade by subtracting the signal drift component from the deflection in order to obtain a stabilized deflection value for ascertaining the load.
A composition comprising one or more Akkermansia muciniphila strains for use in the prophylaxis and/or treatment of airway inflammation of asthma.