mhurhangee/patent-ind-claim-en huggingface dataset:
A heat transfer plate including a heat transfer area provided with a corrugation pattern comprising alternately arranged ridges and valleys in relation to a central extension plane (C) of the heat transfer plate, which ridges form arrows comprising first arrows , which first arrows each comprises two legs arranged on opposite sides of, and a head arranged on, a respective one of a first number of imaginary straight lines extending across the complete heat transfer area parallel to a longitudinal centre axis (I) of the heat transfer plate, each of the imaginary straight lines comprising at least one primary portion along which at least three of the first arrow heads are arranged, uniformly spaced, wherein at least a majority of the imaginary straight lines comprise at least one secondary portion each along which an extension of the ridges and valleys on one side of the imaginary straight line is parallel with the extension of the ridges and valleys on another opposite side of the imaginary straight line, wherein the heat transfer area is divided into a second number of transverse bands extending transverse to the longitudinal centre axis (I) of the heat transfer plate and from a first to an opposing second long side of the heat transfer area , characterized in that , within the outermost transverse bands , the corrugation pattern is similar.
A combination ball bearing of even rows comprising angular ball bearings axially arranged in four or more even rows, wherein a ball pitch circle diameter ratio is configured such that 1.0 ≤ ball pitch circle diameter of one of the outer row bearings/ball pitch circle diameter of one of the inner row bearings < 1.5, wherein the ball bearings are axially arranged bilaterally symmetric, wherein a contact angle (α1, α4) of the angular ball bearing arranged at the axially outer side is greater than a contact angle (α2, α3) of the angular ball bearing arranged at the axially inner side, wherein the contact angle (α1, α2, α3, α4) of each row of angular ball bearings is between 10° and 30°, and wherein the angular ball bearings are arranged so as to configure a back-surface combination, characterised in that a ball diameter (d1, d4) of at least one of the angular ball bearings arranged at an axially outer side is greater than a ball diameter (d2, d3) of the angular ball bearings arranged at an axially inner side, wherein a ball diameter ratio is configured such that 1.0 < ball diameter of one of the outer row bearings/ball diameter of one of the inner row bearings < 4.6.
A method of producing a solar-thermal conversion member for a solar-thermal conversion device, wherein the solar-thermal conversion device comprises a collector; a thermal medium; and at least one of a container and a flow channel for the thermal medium; wherein the thermal medium is held within at least one of the container and the flow channel; wherein light is concentrated on at least one of the container and the flow channel; and wherein the thermal medium within at least one of the container and the flow channel is heated by the concentrated light characterized in that the solar-thermal conversion member comprises a β-FeSi 2 phase material; the β-FeSi 2 phase material is obtained by physical vapor deposition at a substrate temperature of at least 300°C; the solar-thermal conversion device includes one of a first layer consisting of the solar-thermal conversion member and a solar-thermal conversion stack in which a first layer consisting of the solar-thermal conversion member and a second layer consisting of an inorganic material are stacked; and the first layer or the solar-thermal conversion stack is disposed on a surface of at least one of the container and the flow channel. wherein the solar-thermal conversion device comprises a collector; a thermal medium; and at least one of a container and a flow channel for the thermal medium; wherein the thermal medium is held within at least one of the container and the flow channel; wherein light is concentrated on at least one of the container and the flow channel; and wherein the thermal medium within at least one of the container and the flow channel is heated by the concentrated light characterized in that the solar-thermal conversion member comprises a β-FeSi 2 phase material; the β-FeSi 2 phase material is obtained by physical vapor deposition at a substrate temperature of at least 300°C; the solar-thermal conversion device includes one of a first layer consisting of the solar-thermal conversion member and a solar-thermal conversion stack in which a first layer consisting of the solar-thermal conversion member and a second layer consisting of an inorganic material are stacked; and the first layer or the solar-thermal conversion stack is disposed on a surface of at least one of the container and the flow channel.
A segmented pitch ring for use in a blade pitch system of a wind turbine , the segmented pitch ring comprising one or more rolled segments and characterized by further comprising one or more casted segments , wherein the rolled and casted segments are arc-shaped or comprise arc-shaped sections that in combination define a substantially circular circumference of the pitch ring .
Anoscope (1; 1a; 1b), comprising a grippable portion arranged for being gripped by an operator and a body arranged for being inserted in the terminal tract of the rectum of a patient, a cavity and at least one operating window being made in said body , said anoscope (1; 1a) further comprising housing means arranged for containing at least one surgical instrument suitable for the treatment of haemorrhoids, said housing means comprising at least one conduit , and seat means arranged for containing at least one lighting device , said housing means and said seat means being comprised in said cavity , said anoscope (1; 1a) being characterised in that it comprises three operating windows that are staggered from each other and three conduits , said three conduits being aligned with said three operating windows and being staggered from each other.
A flexible mandrel for molding a composite material containing a thermosetting resin, comprising: a main body containing a first material; and a thermally conductive layer containing a second material having a higher thermal conductivity than the first material, the thermally conductive layer being formed so as to cover at least a portion of the main body , wherein the thermally conductive layer extends from a contacting surface of the flexible mandrel , which comes into contact with the composite material during molding, to a non-contacting surface which does not come into contact with the composite material, characterized in that the second material is a PITCH-based CFRP having an anisotropic thermal conductivity, and the PITCH-based CFRP has its fiber direction extending from the contacting surface toward the non-contacting surface . a main body containing a first material; and a thermally conductive layer containing a second material having a higher thermal conductivity than the first material, the thermally conductive layer being formed so as to cover at least a portion of the main body , wherein the thermally conductive layer extends from a contacting surface of the flexible mandrel , which comes into contact with the composite material during molding, to a non-contacting surface which does not come into contact with the composite material, characterized in that the second material is a PITCH-based CFRP having an anisotropic thermal conductivity, and the PITCH-based CFRP has its fiber direction extending from the contacting surface toward the non-contacting surface .
A process for producing a supercapacitor, comprising a flexible substrate , said process comprising at least the steps of: • unrolling said flexible substrate from a first roll ; • spraying a plurality of suspensions comprising micro/nanoparticles suspended in a solvent , said suspensions being sprayed by a plurality of nozzles forming jets of droplets of said suspension defining a spatial region, referred to as deposition region , the composition of said micro/nanoparticles of one said sprayed suspension is different from the composition of said micro/nanoparticles of at least one other said sprayed suspension ; • transporting at least one portion of said flexible substrate through a region for deposition of micro/nanoparticles , along a direction of transport of said flexible substrate , the interaction of said deposition region and of said flexible substrate forming an impact region ; • heating said flexible substrate , during each spraying operation, so as to encourage the complete evaporation of said solvent from said suspensions sprayed onto said flexible substrate ; said process being characterized in that an assembly of at least two nozzles simultaneously sprays at least two suspensions substantially over the same impact region . • unrolling said flexible substrate from a first roll ; • spraying a plurality of suspensions comprising micro/nanoparticles suspended in a solvent , said suspensions being sprayed by a plurality of nozzles forming jets of droplets of said suspension defining a spatial region, referred to as deposition region , the composition of said micro/nanoparticles of one said sprayed suspension is different from the composition of said micro/nanoparticles of at least one other said sprayed suspension ; • transporting at least one portion of said flexible substrate through a region for deposition of micro/nanoparticles , along a direction of transport of said flexible substrate , the interaction of said deposition region and of said flexible substrate forming an impact region ; • heating said flexible substrate , during each spraying operation, so as to encourage the complete evaporation of said solvent from said suspensions sprayed onto said flexible substrate ;
An oral care composition comprising: zinc phosphate, stannous fluoride and optionally, an organic acid buffer system for use in a method of increasing proteins that reduce signals associated with neutrophil recruitment and reducing proteins that induce neutrophil recruitment within an individual's gingival crevice, wherein the proteins that induce neutrophil recruitment are TNFα and MIF and the method comprises applying to the individual's oral cavity in an amount effective to increase proteins that reduce signals associated with neutrophil recruitment and that reduce proteins that induce neutrophil recruitment within an individual's gingival crevice.
Scanning microscope, having a detector apparatus , which is configured to receive light and to generate electrical signals, with a housing and a detector arranged in the housing , wherein a. a cooling component is arranged in the housing and a light path for the light to be detected is defined and passes through the cooling component and/or wherein b. a cooling component is provided in the housing and is embodied in the form of a thermally conducting, electrically insulating intermediate element , wherein the detector apparatus has a light sensor , in particular a photo cathode , connected downstream of which is an electron accelerator, wherein the accelerated electrons are guided to an avalanche diode . a. a cooling component is arranged in the housing and a light path for the light to be detected is defined and passes through the cooling component and/or wherein b. a cooling component is provided in the housing and is embodied in the form of a thermally conducting, electrically insulating intermediate element ,
A fixture adapted for removing a slip ring assembly for an ac rotating electrical machine from an outer end of a rotor shaft of the ac rotating electrical machine ; comprising: a plurality of standoffs adapted to mount the fixture to the slip ring assembly ; characterised by : a jacking assembly adapted to apply a disengaging force to an outer end of the rotor shaft , said jacking assembly comprising an operating piston ; and a strongback adapted to provide back support for the jacking assembly and for the standoffs ; wherein the plurality of standoffs are adapted to fixedly engage an outer end plate of the slip ring assembly and the standoffs fixedly engage the strongback to maintain a predetermined separation between the strongback and the outer end plate of the slip ring assembly ; and wherein the plurality of standoffs are symetrically distributed circumferentially between the strongback and the outer end plate of the slip ring assembly , wherein the plurality of standoffs include end threads to engage corresponding threaded holes on an outer face of the outer end plate of the slip ring assembly , wherein said operating piston is centered along a central axis of the fixture and wherein the piston is adapted to move along the central axis in a direction away from the strongback such that the stroke of the operating piston will provide a force against the outer end of the rotor shaft . a jacking assembly adapted to apply a disengaging force to an outer end of the rotor shaft , said jacking assembly comprising an operating piston ; and a strongback adapted to provide back support for the jacking assembly and for the standoffs ; wherein the plurality of standoffs are adapted to fixedly engage an outer end plate of the slip ring assembly and the standoffs fixedly engage the strongback to maintain a predetermined separation between the strongback and the outer end plate of the slip ring assembly ; and wherein the plurality of standoffs are symetrically distributed circumferentially between the strongback and the outer end plate of the slip ring assembly , wherein the plurality of standoffs include end threads to engage corresponding threaded holes on an outer face of the outer end plate of the slip ring assembly , wherein said operating piston is centered along a central axis of the fixture and wherein the piston is adapted to move along the central axis in a direction away from the strongback such that the stroke of the operating piston will provide a force against the outer end of the rotor shaft .
A lighting lamp , extending along an axis (A) and comprising a support structure and solid-state light sources supported by the support structure ; the light sources comprising at least one LED source positioned on a top face , facing upwards in use in the environment to be illuminated, of a portion of a base body , which supports the light sources , of the support structure , and a plurality of OLED sources , projecting downwards, with reference to the normal position of use of the lamp in the environment to be illuminated, from the base body and arranged about the axis (A) and angularly spaced apart from one another about the axis (A) and at least partially facing one another to delimit a light mixing chamber ; wherein the LED source and the OLED sources are supported by the support structure in such a way that at least one fraction of light from the LED source and/or from an optical element associated with the LED source strikes at least a part of an emissive surface of the OLED sources , so that the OLED sources also act as auxiliary optical elements for controlling the light emitted by the LED source .
An apparatus for determining the spatial position of pick-up elements of a container , said apparatus comprising: a moving sensor which is configured to acquire a respective set of spatial coordinates of points for a plurality of mutually different sensor positions, wherein the points lie in a spatial region which comprises the container ; and an evaluation unit which is configured: to combine the respective sets of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points . a moving sensor which is configured to acquire a respective set of spatial coordinates of points for a plurality of mutually different sensor positions, wherein the points lie in a spatial region which comprises the container ; and an evaluation unit which is configured: to combine the respective sets of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points . to combine the respective sets of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points .
A medium transport device comprising: a transport unit configured to transport a medium; an image capture unit disposed below the medium that is transported by the transport unit and configured to capture an image of a first side of the medium that is transported by the transport unit , the image capture unit including an optical member , a light-transmitting member , and a support member , wherein the light-transmitting member is disposed below the first side of the medium and above the optical member in an up-down direction and is configured to transmit light for image capture by the image capture unit , wherein the light-transmitting member is fixed to the support member , wherein the support member is configured to support the first side of the medium above an upper surface of the light-transmitting member in the up-down direction, and wherein a focal position of the optical member is positioned above an upper surface of the light-transmitting member in the up-down direction, characterised in that the medium transport device further comprises: a control unit configured to detect a transport amount of the medium that is transported by the transport unit on the basis of the image captured by the image capture unit and to control the transport unit on the basis of the transport amount of the medium. a transport unit configured to transport a medium; an image capture unit disposed below the medium that is transported by the transport unit and configured to capture an image of a first side of the medium that is transported by the transport unit , the image capture unit including an optical member , a light-transmitting member , and a support member , wherein the light-transmitting member is disposed below the first side of the medium and above the optical member in an up-down direction and is configured to transmit light for image capture by the image capture unit , wherein the light-transmitting member is fixed to the support member , wherein the support member is configured to support the first side of the medium above an upper surface of the light-transmitting member in the up-down direction, and wherein a focal position of the optical member is positioned above an upper surface of the light-transmitting member in the up-down direction, characterised in that the medium transport device further comprises: a control unit configured to detect a transport amount of the medium that is transported by the transport unit on the basis of the image captured by the image capture unit and to control the transport unit on the basis of the transport amount of the medium.
A method for installation of a floor mat comprising the following steps: (a) Providing a base component comprising an elastomer that contains magnetic particles, wherein the base component contains at least one attachment means ; (b) Providing a textile component comprising (i) a first layer of tufted pile carpet formed by tufting face yarns through a primary backing layer and (ii) a second layer of vulcanized rubber material that contains magnetic particles, and wherein the textile component contains at least one attachment means that works in corresponding relationship with the at least one attachment means of step "a," wherein the base component and the textile component are releasably attachable to one another via the at least one attachment means; (c) Aligning the textile component with the base component, wherein the step of aligning is accomplished via the use of at least one alignment or deployment mechanism; and (d) Deploying the textile component onto the base component. (a) Providing a base component comprising an elastomer that contains magnetic particles, wherein the base component contains at least one attachment means ; (b) Providing a textile component comprising (i) a first layer of tufted pile carpet formed by tufting face yarns through a primary backing layer and (ii) a second layer of vulcanized rubber material that contains magnetic particles, and wherein the textile component contains at least one attachment means that works in corresponding relationship with the at least one attachment means of step "a," wherein the base component and the textile component are releasably attachable to one another via the at least one attachment means; (c) Aligning the textile component with the base component, wherein the step of aligning is accomplished via the use of at least one alignment or deployment mechanism; and (d) Deploying the textile component onto the base component.
Asymmetric rigid corset with lateral valves for correcting scoliosis, comprising at least two asymmetric lateral half-valve casings or half-casings reproducing a column that is twisted in the opposite direction to the scoliosis, at least one posterior mast or upright with kypholordosis curvature connected by adjustable posterior hinges to said lateral half-valve casings and at least two anterior closures positioned beneath the ventral portion of said corset.
A guide information display apparatus, comprising: a data display section; a data acquisition section that acquires image data of a suspended load region, and point cloud data, the image data being taken by a camera, the point cloud data being acquired by scanning an object from a top surface, the object including a suspended load and a grounded object in the suspended load region; and a data processing section that creates a guide frame corresponding to the top surface of the object estimated from the point cloud data and causes the guide frame to be displayed on the data display section while superimposing the created guide frame on the object in the image data, wherein the data processing section creates the guide frame by grouping the point cloud data within a predetermined thickness of a region in a distance direction from the laser scanner, calculating a center of gravity of a plurality of points for which an inter-point distance is equal to or smaller than a threshold in the point cloud data belonging to a same group, and deeming, to be the top surface of the object, point data for which a distance with the center of gravity is equal to or smaller than a threshold. a data display section; a data acquisition section that acquires image data of a suspended load region, and point cloud data, the image data being taken by a camera, the point cloud data being acquired by scanning an object from a top surface, the object including a suspended load and a grounded object in the suspended load region; and a data processing section that creates a guide frame corresponding to the top surface of the object estimated from the point cloud data and causes the guide frame to be displayed on the data display section while superimposing the created guide frame on the object in the image data, wherein the data processing section creates the guide frame by grouping the point cloud data within a predetermined thickness of a region in a distance direction from the laser scanner, calculating a center of gravity of a plurality of points for which an inter-point distance is equal to or smaller than a threshold in the point cloud data belonging to a same group, and deeming, to be the top surface of the object, point data for which a distance with the center of gravity is equal to or smaller than a threshold.