mhurhangee/ep-ind-claims huggingface dataset:
Method to manufacture a multi-layer composite panel, in particular for inner components of motor vehicles; said method comprising the following steps: - providing an outer portion including a multi-layer three-dimensional fabric comprising an outer layer made up of an outer fabric, a base layer made up of a base fabric, and an intermediate layer arranged in a "sandwich"-like manner between said outer layer and said base layer and made up of an intermediate fabric comprising a synthetic yarn, for example polyester; and - positioning said outer portion in the cavity of a mold; - carrying out a particle foaming process of a support portion made of expanded polypropylene on said base layer of said outer portion positioned in said mold; - applying a thin polyolefin layer or film on the outer side of said base layer before said outer portion is inserted into the mold; and - subjecting the assembly consisting of said outer portion and said thin polyolefin layer or film to a calendering process prior to the insertion into said mold. - providing an outer portion including a multi-layer three-dimensional fabric comprising an outer layer made up of an outer fabric, a base layer made up of a base fabric, and an intermediate layer arranged in a "sandwich"-like manner between said outer layer and said base layer and made up of an intermediate fabric comprising a synthetic yarn, for example polyester; and - positioning said outer portion in the cavity of a mold; - carrying out a particle foaming process of a support portion made of expanded polypropylene on said base layer of said outer portion positioned in said mold; - applying a thin polyolefin layer or film on the outer side of said base layer before said outer portion is inserted into the mold; and - subjecting the assembly consisting of said outer portion and said thin polyolefin layer or film to a calendering process prior to the insertion into said mold.
An additive manufacturing apparatus, comprising: a linear rail, having a length L1, wherein the linear rail is one of rotatable or revolvable in a horizontal plane about a vertical axis A; an electromagnetic energy source movably coupled to the linear rail and movable in a polar coordinate system having a radius R; a build platform, vertically movable relative to the electromagnetic-energy source; and a powder-containment compartment, configured to contain a metal powder and having a powder-bed volume, and wherein the build platform at least partially delimits the powder-bed volume. a linear rail, having a length L1, wherein the linear rail is one of rotatable or revolvable in a horizontal plane about a vertical axis A; an electromagnetic energy source movably coupled to the linear rail and movable in a polar coordinate system having a radius R; a build platform, vertically movable relative to the electromagnetic-energy source; and a powder-containment compartment, configured to contain a metal powder and having a powder-bed volume, and wherein the build platform at least partially delimits the powder-bed volume.
A pop noise control system comprising: a detector block (318, 321, 324, 325, 327, 328, 330) configured to detect impulsive components in an input sound signal (x(n)) based on a signal-to-noise ratio spectrum (SNR x (ω)) of the input signal (x(n)); and a masking block (331, 332) configured to generate a spectral pop noise removal mask (PnrMask(ω)) and to apply the spectral pop noise removal mask (PnrMask(ω)) to the input signal (x(n)) if impulsive components in the input signal (x(n)) are detected, the spectral pop noise removal mask (PnrMask(w)) being configured to suppress the impulsive components in the input signal (x(n)), when applied, characterized in that the masking block (331, 332) comprises a mask generation block configured to provide the spectral pop noise removal mask (PnrMask(ω)), the spectral pop noise removal mask (PnrMask(ω)) being dependent on the signal-to-noise ratio spectrum (SNR x (ω)) such that the spectral pop noise removal mask (PnrMask(ω)) is the p-norm of the difference between one and the signal-to-noise ratio spectrum (SNR x (ω)). a detector block (318, 321, 324, 325, 327, 328, 330) configured to detect impulsive components in an input sound signal (x(n)) based on a signal-to-noise ratio spectrum (SNR x (ω)) of the input signal (x(n)); and a masking block (331, 332) configured to generate a spectral pop noise removal mask (PnrMask(ω)) and to apply the spectral pop noise removal mask (PnrMask(ω)) to the input signal (x(n)) if impulsive components in the input signal (x(n)) are detected, the spectral pop noise removal mask (PnrMask(w)) being configured to suppress the impulsive components in the input signal (x(n)), when applied, characterized in that the masking block (331, 332) comprises a mask generation block configured to provide the spectral pop noise removal mask (PnrMask(ω)), the spectral pop noise removal mask (PnrMask(ω)) being dependent on the signal-to-noise ratio spectrum (SNR x (ω)) such that the spectral pop noise removal mask (PnrMask(ω)) is the p-norm of the difference between one and the signal-to-noise ratio spectrum (SNR x (ω)).
A prosthetic valve (100; 600; 700), comprising: a radially collapsible and expandable frame (102; 612; 702; 2300); and a leaflet structure (110; 610; 704; 2200) comprising a plurality of leaflets (108; 708), a plurality of reinforcement elements (114a-115c; 614a-614c; 2202), and a plurality of leaflet-supporting members (116a-116c; 616a-616c; 2204), wherein the frame (102; 612; 702; 2300) and the leaflet structure (110; 610; 704; 2200) each comprise a plurality of open cells (115; 615; 707; 2208, 2302), with each of the leaflet-supporting members (116a-116c; 616a-616c; 2204) positioned to be a boundary for the plurality of open cells (115; 2208) of the leaflet structure (110; 610; 2200); wherein the frame (102; 612; 702; 2300) is coupled to the leaflet structure (110; 610; 704; 2200) such that the leaflets (108; 708) are positioned at least substantially outside of the frame (102; 612; 702; 2300), and wherein a portion of each of the leaflets (108; 708) is positioned in a respective gap (617; 2212) formed between a respective reinforcement element (114a-115c; 614a-614c; 2202) and a respective leaflet-supporting member (116a-116c; 616a-616c; 2204), characterized in that the frame (102; 612; 702; 2300) is adjacent an inflow end (104; 604) of the prosthetic valve (100; 600; 700) and the leaflet structure (110; 610; 2200) is adjacent an outflow end (106; 606) of the prosthetic valve (100; 600; 700). a radially collapsible and expandable frame (102; 612; 702; 2300); and a leaflet structure (110; 610; 704; 2200) comprising a plurality of leaflets (108; 708), a plurality of reinforcement elements (114a-115c; 614a-614c; 2202), and a plurality of leaflet-supporting members (116a-116c; 616a-616c; 2204), wherein the frame (102; 612; 702; 2300) and the leaflet structure (110; 610; 704; 2200) each comprise a plurality of open cells (115; 615; 707; 2208, 2302), with each of the leaflet-supporting members (116a-116c; 616a-616c; 2204) positioned to be a boundary for the plurality of open cells (115; 2208) of the leaflet structure (110; 610; 2200); wherein the frame (102; 612; 702; 2300) is coupled to the leaflet structure (110; 610; 704; 2200) such that the leaflets (108; 708) are positioned at least substantially outside of the frame (102; 612; 702; 2300), and wherein a portion of each of the leaflets (108; 708) is positioned in a respective gap (617; 2212) formed between a respective reinforcement element (114a-115c; 614a-614c; 2202) and a respective leaflet-supporting member (116a-116c; 616a-616c; 2204), characterized in that the frame (102; 612; 702; 2300) is adjacent an inflow end (104; 604) of the prosthetic valve (100; 600; 700) and the leaflet structure (110; 610; 2200) is adjacent an outflow end (106; 606) of the prosthetic valve (100; 600; 700).
Method for actuating an electric drive of a trailer vehicle with a towing vehicle, which comprises determining an acceleration requirement for the electric drive, comprising the following steps: - determining a current slip of at least one driven wheel of a towing vehicle pulling the trailer vehicle, - determining an expected slip for the driven wheel of the towing vehicle, - determining the acceleration requirement on the basis of the determined current slip and the determined expected slip, - actuating the electric drive by means of an actuation signal on the basis of the acceleration requirement, wherein the expected slip is additionally determined on the basis of a mass of the trailer vehicle. comprising the following steps: - determining a current slip of at least one driven wheel of a towing vehicle pulling the trailer vehicle, - determining an expected slip for the driven wheel of the towing vehicle, - determining the acceleration requirement on the basis of the determined current slip and the determined expected slip, - actuating the electric drive by means of an actuation signal on the basis of the acceleration requirement, - determining a current slip of at least one driven wheel of a towing vehicle pulling the trailer vehicle, - determining an expected slip for the driven wheel of the towing vehicle, - determining the acceleration requirement on the basis of the determined current slip and the determined expected slip, - actuating the electric drive by means of an actuation signal on the basis of the acceleration requirement, wherein the expected slip is additionally determined on the basis of a mass of the trailer vehicle.
A downhole completion system comprising: - a production casing installed in a borehole, and - an annular barrier system to be expanded in an annulus between the production casing and a wall of a borehole or another well tubular structure downhole for providing zone isolation between a first zone having a first pressure (P 1) and a second zone having a second pressure (P 2) of the borehole, the annular barrier system comprising an annular barrier comprising: - a tubular metal part mounted as part of the production casing, the tubular metal part having an outer face, - an expandable metal sleeve surrounding the tubular metal part and having an inner sleeve face facing the tubular metal part and an outer sleeve face facing the wall of the borehole, each end (12, 13) of the expandable metal sleeve being connected with the tubular metal part, and - an annular space between the inner sleeve face of the expandable metal sleeve and the tubular metal part, the annular space having a space pressure (P s), wherein the annular barrier system further comprises a sensor device which is in communication with the first zone and second zone, respectively, the sensor device being adapted to measure the first pressure of the first zone and the second pressure of the second zone for verifying the zone isolation. - a production casing installed in a borehole, and - an annular barrier system to be expanded in an annulus between the production casing and a wall of a borehole or another well tubular structure downhole for providing zone isolation between a first zone having a first pressure (P 1) and a second zone having a second pressure (P 2) of the borehole, the annular barrier system comprising an annular barrier comprising: - a tubular metal part mounted as part of the production casing, the tubular metal part having an outer face, - an expandable metal sleeve surrounding the tubular metal part and having an inner sleeve face facing the tubular metal part and an outer sleeve face facing the wall of the borehole, each end (12, 13) of the expandable metal sleeve being connected with the tubular metal part, and - an annular space between the inner sleeve face of the expandable metal sleeve and the tubular metal part, the annular space having a space pressure (P s), - a tubular metal part mounted as part of the production casing, the tubular metal part having an outer face, - an expandable metal sleeve surrounding the tubular metal part and having an inner sleeve face facing the tubular metal part and an outer sleeve face facing the wall of the borehole, each end (12, 13) of the expandable metal sleeve being connected with the tubular metal part, and - an annular space between the inner sleeve face of the expandable metal sleeve and the tubular metal part, the annular space having a space pressure (P s),
A method for virtually/digitally designing a denture for a patient, where the denture comprises a plurality of denture teeth, where designing the denture comprises transforming, such as relocating, repositioning and/or rotating, denture teeth of the denture, wherein the method comprises: - obtaining a 3D scan of the upper jaw and lower jaw of the patient; - obtaining/providing a virtual 3D arrangement of the denture teeth, where the denture teeth are pre-set in occlusion; - virtually arranging/providing the 3D scan of the upper jaw and lower jaw relative to the 3D arrangement of the denture teeth; - defining a predetermined distance between at least a number of neighbor denture teeth; - providing the predetermined distance between the neighbor denture teeth, when the user virtually repositions a denture tooth in the virtual 3D arrangement of denture teeth, wherein the predetermined distance is automatically obtained when the user repositions the denture tooth; and characterised in that the upper and lower anterior teeth in the virtual 3D arrangement of denture teeth are setup in occlusion separately from each other in arch-shaped blocks. - obtaining a 3D scan of the upper jaw and lower jaw of the patient; - obtaining/providing a virtual 3D arrangement of the denture teeth, where the denture teeth are pre-set in occlusion; - virtually arranging/providing the 3D scan of the upper jaw and lower jaw relative to the 3D arrangement of the denture teeth; - defining a predetermined distance between at least a number of neighbor denture teeth; - providing the predetermined distance between the neighbor denture teeth, when the user virtually repositions a denture tooth in the virtual 3D arrangement of denture teeth, wherein the predetermined distance is automatically obtained when the user repositions the denture tooth; and
A method for the production of granules comprising surface-reacted calcium carbonate, comprising the steps of: a) providing a surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source; b) compacting the surface-reacted calcium carbonate of step a) by means of a roller compacter at a compaction pressure in the range from 1 to 30 kN/cm into a compacted form; c) milling the compacted form of step b) into granules; wherein the compacted form obtained in step b) consists of the surface-reacted calcium carbonate of step a). a) providing a surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source; b) compacting the surface-reacted calcium carbonate of step a) by means of a roller compacter at a compaction pressure in the range from 1 to 30 kN/cm into a compacted form; c) milling the compacted form of step b) into granules;
A gas turbine engine article comprising a silicon based substrate having a bond coat and an environmental barrier coating protective layer disposed thereon for protecting the substrate from the environment, wherein the environmental barrier coating protective layer is doped with an additive which is present in an amount between 5% and 20% by vol. that either stabilizes the as-fabricated structure for high temperature use and/or alters the mechanism of thermal resistance of the protective layer, in order to inhibit transmission of radiant energy in the wavelength region of the electromagnetic spectrum of between 0.7 to 5.0 microns; wherein the additive is selected from the group consisting of color centers and mixtures of color centers and scattering centers; and characterised in that the additive comprises a color center selected from the group consisting of spinels, transition metal aluminates, manganates, ferrites, chromates, cobaltates, oxides of chromium, iron, nickel, cobalt, manganese, and mixtures thereof.
A patient bed comprising a frame configured to support a patient, circuitry carried by the frame, and a graphical user interface carried by the frame and coupled to the circuitry, the graphical user interface displaying at least one user interface screen that is used by a caregiver to manually enter location data indicative of a location in a healthcare facility at which the patient bed is located, the circuitry being configured to transmit the location data entered by the caregiver and a bed identification from the bed, wherein the circuitry commands the GUI to display a first screen of the at least one interface screen that is used by the caregiver to manually enter location data, the first screen being displayed after a threshold period of time elapses subsequent to a power plug of the circuitry being plugged into an alternating current outlet of the healthcare facility and subsequent to casters of the frame being braked. a frame configured to support a patient, circuitry carried by the frame, and a graphical user interface carried by the frame and coupled to the circuitry, the graphical user interface displaying at least one user interface screen that is used by a caregiver to manually enter location data indicative of a location in a healthcare facility at which the patient bed is located, the circuitry being configured to transmit the location data entered by the caregiver and a bed identification from the bed, wherein the circuitry commands the GUI to display a first screen of the at least one interface screen that is used by the caregiver to manually enter location data, the first screen being displayed after a threshold period of time elapses subsequent to a power plug of the circuitry being plugged into an alternating current outlet of the healthcare facility and subsequent to casters of the frame being braked.
Fish plate clamp for unloading rails, the fish plate clamp comprising a support element (11, 12) that comprises a first piece and a second piece adapted so that each one is located on a face of the rail at an end of said rail, - each piece of the support element (11, 12) comprises an internal mortise on its face destined to be placed adjacent to the rail, the internal mortises being adapted to be placed facing the area of the web of the rail; - a first and second metal gripping element for the rail are each one located in the internal mortise of the support element (11, 12) in such a way that the gripping element is movable with respect to the support element (11, 12) in the longitudinal direction of the rail, where the internal mortises comprise an inclined surface in a manner that the internal mortise longitudinally decreases in depth towards the end of the fish plate clamp destined to lodge the end of the rail, the gripping elements and the internal mortises being configured in a manner that when the gripping element moves along the length of the inclined surface of the internal mortise in the direction of pulling of the rail, the gripping element latches onto the web of the rail, characterized in that the fish plate clamp further comprises magnetic elements joined at the first piece and the second piece of the support element for fastening the gripping elements. - each piece of the support element (11, 12) comprises an internal mortise on its face destined to be placed adjacent to the rail, the internal mortises being adapted to be placed facing the area of the web of the rail; - a first and second metal gripping element for the rail are each one located in the internal mortise of the support element (11, 12) in such a way that the gripping element is movable with respect to the support element (11, 12) in the longitudinal direction of the rail,
A process for obtaining carbon nanotubes bound to nanometric and/or micrometric sized ceramic material or carbon fiber supports, characterized in that it comprises: - contacting said supports with a mixture of a carbon source compound and a catalyst, under a stream of inert gas and hydrogen gas, the contacting step being effected by chemical vapor deposition. - contacting said supports with a mixture of a carbon source compound and a catalyst, under a stream of inert gas and hydrogen gas, the contacting step being effected by chemical vapor deposition.
A method, comprising receiving a sensor signal indicative of a sensed variable on a mobile machine; determining a metric value for a metric based on the sensor signal; and displaying a time continuous display indicative of the metric value, the method further comprising receiving a user interaction with the time continuous display and modifying the time continuous display based on the user interaction, wherein receiving a user interaction comprises receiving a drill input, and wherein modifying the time continuous display comprises displaying a more detailed display indicative of more detailed information corresponding to the metric value on the time continuous display, characterized in that displaying a more detailed display comprises displaying a video image corresponding to the sensed variable and/or that the metric comprises a performance metric derived from a plurality of sensed variables and that displaying a more detailed display comprises displaying a time continuous display for each of the plurality of sensed variables. characterized in that displaying a more detailed display comprises displaying a video image corresponding to the sensed variable and/or that the metric comprises a performance metric derived from a plurality of sensed variables and that displaying a more detailed display comprises displaying a time continuous display for each of the plurality of sensed variables.
A razor comprising: a hair-cutting fiber having a hair-cutting section arranged for cutting through hairs on skin of a user by moving the hair-cutting section through the hairs; a support to which opposite end portions of the hair-cutting section are attached; and a skin engaging surface; wherein the hair-cutting section is attached to the support in such a position relative to the skin engaging surface that the hair-cutting section is exposed to the skin for cutting through the hairs when the skin engaging surface is in contact with the skin and moved over the skin; characterized in that: the hair-cutting section has a fiber diameter smaller than or equal to 7 μm; and the hair-cutting section is made from a fiber material having a tensile strength larger than or equal to 5 GPa. a hair-cutting fiber having a hair-cutting section arranged for cutting through hairs on skin of a user by moving the hair-cutting section through the hairs; a support to which opposite end portions of the hair-cutting section are attached; and a skin engaging surface; wherein the hair-cutting section is attached to the support in such a position relative to the skin engaging surface that the hair-cutting section is exposed to the skin for cutting through the hairs when the skin engaging surface is in contact with the skin and moved over the skin; characterized in that: the hair-cutting section has a fiber diameter smaller than or equal to 7 μm; and the hair-cutting section is made from a fiber material having a tensile strength larger than or equal to 5 GPa. the hair-cutting section has a fiber diameter smaller than or equal to 7 μm; and the hair-cutting section is made from a fiber material having a tensile strength larger than or equal to 5 GPa.