mhurhangee/patent-ind-claim-en huggingface dataset:
Auxiliary control device for the local adaptation of a control signal (SK, SKV) to be supplied to a device-external ventilator , having: - a supply input to which a ventilator supply voltage (UV) can be supplied; - a supply output , which is configured to provide the supplied ventilator supply voltage (UV) to the device-external ventilator ; - a control input which is configured to receive from a device-external control device an actual control signal (SK) to be supplied to the external ventilator , which specifies a target flow rate (SFL) to the ventilator ; - a control unit which is connected to the control input and the supply input and which uses the ventilator supply voltage (UV) as its own power supply, and which has: - a flow rate determining unit which is configured to detect a performance parameter (PL) correlating to an actual flow rate (IFL) of the ventilator ; - a control signal adapting unit , which is configured to determine a target control signal (SKV) depending on the received actual control signal (SK) and the detected performance parameter (PL) and to compare it with the received actual control signal (SK); - a performance control unit , which is configured, depending on the comparison result, to output either the received actual control signal (SK) or the target control signal (SKV) at a control output to the external ventilator . - a supply input to which a ventilator supply voltage (UV) can be supplied; - a supply output , which is configured to provide the supplied ventilator supply voltage (UV) to the device-external ventilator ; - a control input which is configured to receive from a device-external control device an actual control signal (SK) to be supplied to the external ventilator , which specifies a target flow rate (SFL) to the ventilator ; - a control unit which is connected to the control input and the supply input and which uses the ventilator supply voltage (UV) as its own power supply, and which has: - a flow rate determining unit which is configured to detect a performance parameter (PL) correlating to an actual flow rate (IFL) of the ventilator ; - a control signal adapting unit , which is configured to determine a target control signal (SKV) depending on the received actual control signal (SK) and the detected performance parameter (PL) and to compare it with the received actual control signal (SK); - a performance control unit , which is configured, depending on the comparison result, to output either the received actual control signal (SK) or the target control signal (SKV) at a control output to the external ventilator .
A panel comprising: - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides including first and second longitudinal panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201, 202,..., 206); - first and second opposite end sides including first and second end panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201,202,..., 206); whereby - at least first and second longitudinal grooves arranged in said base layer from said first end side to said second end side and facing said heat providing layer , said at least first and second longitudinal grooves being arranged in parallel with, and having at least first and second distances to said first and second longitudinal sides, respectively; and - at least one electrical end connector arranged at one or more of said first and second end panel coupling means, said at least one electrical end connector including first and second end portions, said first and second end portions being at least partly electrically conductive and at least partly protruding from said one or more of said first and second end panel coupling means, thereby providing an electrical connection between said heat providing layer of said panel and a corresponding heat providing layer of at least one adjacent panel coupled to said panel . - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides including first and second longitudinal panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201, 202,..., 206); - first and second opposite end sides including first and second end panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201,202,..., 206); whereby - at least first and second longitudinal grooves arranged in said base layer from said first end side to said second end side and facing said heat providing layer , said at least first and second longitudinal grooves being arranged in parallel with, and having at least first and second distances to said first and second longitudinal sides, respectively; and - at least one electrical end connector arranged at one or more of said first and second end panel coupling means, said at least one electrical end connector including first and second end portions, said first and second end portions being at least partly electrically conductive and at least partly protruding from said one or more of said first and second end panel coupling means, thereby providing an electrical connection between said heat providing layer of said panel and a corresponding heat providing layer of at least one adjacent panel coupled to said panel .
Heating apparatus for growing crystals, the apparatus comprising a heating chamber , and a crucible device for growing crystals, the crucible device comprising a container being arranged in the heating chamber of the heating apparatus, and a seed fixture element , wherein the container comprises a base section , wherein the seed fixture element comprises a seed surface which is configured for attaching a seed crystal , wherein the seed fixture element is moveable coupled to the base section such that the distance between the seed surface and the base section is adjustable, characterized in that the base section comprises a receiving hole in which the seed fixture element is moveable in and out for adjusting the distance between the seed surface and the base section wherein at least one spacer element being arranged between the base section and the seed fixture element , wherein at least the spacer element and the seed fixture element are extractable in a telescopically manner for what reason the at least one spacer element comprises a further receiving hole in which the seed fixture element is movably arranged and the spacer element is movable inside the receiving hole of the base section . a heating chamber , and a crucible device for growing crystals, the crucible device comprising a container being arranged in the heating chamber of the heating apparatus, and a seed fixture element , wherein the container comprises a base section , wherein the seed fixture element comprises a seed surface which is configured for attaching a seed crystal , wherein the seed fixture element is moveable coupled to the base section such that the distance between the seed surface and the base section is adjustable, characterized in that the base section comprises a receiving hole in which the seed fixture element is moveable in and out for adjusting the distance between the seed surface and the base section wherein at least one spacer element being arranged between the base section and the seed fixture element , wherein at least the spacer element and the seed fixture element are extractable in a telescopically manner for what reason the at least one spacer element comprises a further receiving hole in which the seed fixture element is movably arranged and the spacer element is movable inside the receiving hole of the base section .
A connector , comprising: a terminal metal fitting to which a core wire exposed portion (We1a) of a core wire (We1) of a terminal of a wire (We) is physically and electrically connected; a housing inside which the terminal metal fitting and the terminal of the wire (We) are housed and from which the wire (We) is drawn outside the housing from inside the housing ; and a wire holding member that holds, inside the housing , the terminal of the wire (We), wherein the wire holding member has fixed portions fixed to a fixing portion inside the housing , and a holding portion that is formed with a semi-cylindrical shape, and holds the terminal of the wire (We) so that the terminal of the wire (We) does not move relatively to the housing when the fixed portions are fixed to the fixing portion , and wherein the ends of the respective fixed portions on the free end side are fitted to the fixing portion , along a direction perpendicular to the cylinder axis direction of the holding portion . a terminal metal fitting to which a core wire exposed portion (We1a) of a core wire (We1) of a terminal of a wire (We) is physically and electrically connected; a housing inside which the terminal metal fitting and the terminal of the wire (We) are housed and from which the wire (We) is drawn outside the housing from inside the housing ; and a wire holding member that holds, inside the housing , the terminal of the wire (We), wherein the wire holding member has fixed portions fixed to a fixing portion inside the housing , and a holding portion that is formed with a semi-cylindrical shape, and holds the terminal of the wire (We) so that the terminal of the wire (We) does not move relatively to the housing when the fixed portions are fixed to the fixing portion , and wherein the ends of the respective fixed portions on the free end side are fitted to the fixing portion , along a direction perpendicular to the cylinder axis direction of the holding portion .
A system, comprising: a display; at least one image generator configured to output a stream of image data; at least one aircraft state sensor configured to output aircraft state data; and at least one processor configured to: receive the stream of image data; compute an optical flow on the stream of the image data resulting in image-based motion vectors (MVs); receive the aircraft state data; compute expected MVs based on the aircraft state data; compare the expected MVs with the image-based MVs; determine whether at least some of the stream of the image data fails a predetermined assurance level based on a comparison of the expected MVs with the image-based MVs; and upon a determination that at least a portion of the stream of the image data fails the predetermined assurance level, transmit or implement a system response. a display; at least one image generator configured to output a stream of image data; at least one aircraft state sensor configured to output aircraft state data; and at least one processor configured to: receive the stream of image data; compute an optical flow on the stream of the image data resulting in image-based motion vectors (MVs); receive the aircraft state data; compute expected MVs based on the aircraft state data; compare the expected MVs with the image-based MVs; determine whether at least some of the stream of the image data fails a predetermined assurance level based on a comparison of the expected MVs with the image-based MVs; and upon a determination that at least a portion of the stream of the image data fails the predetermined assurance level, transmit or implement a system response. receive the stream of image data; compute an optical flow on the stream of the image data resulting in image-based motion vectors (MVs); receive the aircraft state data; compute expected MVs based on the aircraft state data; compare the expected MVs with the image-based MVs; determine whether at least some of the stream of the image data fails a predetermined assurance level based on a comparison of the expected MVs with the image-based MVs; and upon a determination that at least a portion of the stream of the image data fails the predetermined assurance level, transmit or implement a system response.
An assembly comprising: an expandable prosthetic heart valve (480; 524) comprising a frame and a valve structure positioned within the frame; and a support structure separate from the prosthetic heart valve (480; 524) configured to be positioned such that the support structure extends around the native mitral valve leaflets within the left ventricle of a patient's heart; wherein after the support structure is deployed around the native mitral valve leaflets, the prosthetic heart valve (480; 524) is expandable within the native mitral valve leaflets such that the native mitral valve leaflets are positioned between and engaged by the support structure and the prosthetic heart valve (480; 524). an expandable prosthetic heart valve (480; 524) comprising a frame and a valve structure positioned within the frame; and a support structure separate from the prosthetic heart valve (480; 524) configured to be positioned such that the support structure extends around the native mitral valve leaflets within the left ventricle of a patient's heart; wherein after the support structure is deployed around the native mitral valve leaflets, the prosthetic heart valve (480; 524) is expandable within the native mitral valve leaflets such that the native mitral valve leaflets are positioned between and engaged by the support structure and the prosthetic heart valve (480; 524).
A method comprising: providing, by a cloud infrastructure system , an application programming interface, API, to a data model used by a cloud-based application; receiving, by the cloud infrastructure system , a request for configuration data of the data model through the API, wherein the request is generated by a data security provider ; generating, by the cloud infrastructure system , a response that includes the configuration data, wherein the configuration data includes a set of protectable attributes of an entity modeled using the data model, wherein an entity represents a corresponding row in a database table and the protectable attributes are shared between entities in the cloud infrastructure system, and returning the response to the data security provider ; receiving, by the cloud infrastructure system , an indication of an attribute from the set of protectable attributes that is to be protected, wherein the indication is received from the data security provider ; and marking, by the cloud infrastructure system , the indicated attribute from the set of protectable attributes as protected for all entities in the cloud infrastructure system that share the indicated attribute. providing, by a cloud infrastructure system , an application programming interface, API, to a data model used by a cloud-based application; receiving, by the cloud infrastructure system , a request for configuration data of the data model through the API, wherein the request is generated by a data security provider ; generating, by the cloud infrastructure system , a response that includes the configuration data, wherein the configuration data includes a set of protectable attributes of an entity modeled using the data model, wherein an entity represents a corresponding row in a database table and the protectable attributes are shared between entities in the cloud infrastructure system, and returning the response to the data security provider ; receiving, by the cloud infrastructure system , an indication of an attribute from the set of protectable attributes that is to be protected, wherein the indication is received from the data security provider ; and marking, by the cloud infrastructure system , the indicated attribute from the set of protectable attributes as protected for all entities in the cloud infrastructure system that share the indicated attribute.
A glass composition comprising: from 55 mol.% to 68 mol.% SiO 2 ; from 9 mol.% to 15 mol.% Al 2 O 3 ; from 4.5 mol% to 7 mol.% B 2 O 3 ; from 1 mol.% to 7 mol.% Li 2 O; from 3 mol.% to 12 mol.% Na 2 O; and from 0 mol.% to 3 mol% K 2 O, wherein: R 2 O is a sum of a concentration of Li 2 O, a concentration of Na 2 O, and a concentration of K 2 O, and a ratio of R 2 O to a concentration of Al 2 O 3 is greater than or equal to 1.02 and less than 1.1; the glass composition has a softening point less than or equal to 810°C; the glass composition has a high temperature CTE less than or equal to 27×10 -6 /°C; and the glass composition further comprises TiO 2 and Fe 2 O 3 . from 55 mol.% to 68 mol.% SiO 2 ; from 9 mol.% to 15 mol.% Al 2 O 3 ; from 4.5 mol% to 7 mol.% B 2 O 3 ; from 1 mol.% to 7 mol.% Li 2 O; from 3 mol.% to 12 mol.% Na 2 O; and from 0 mol.% to 3 mol% K 2 O, wherein: R 2 O is a sum of a concentration of Li 2 O, a concentration of Na 2 O, and a concentration of K 2 O, and a ratio of R 2 O to a concentration of Al 2 O 3 is greater than or equal to 1.02 and less than 1.1; the glass composition has a softening point less than or equal to 810°C; the glass composition has a high temperature CTE less than or equal to 27×10 -6 /°C; and the glass composition further comprises TiO 2 and Fe 2 O 3 . R 2 O is a sum of a concentration of Li 2 O, a concentration of Na 2 O, and a concentration of K 2 O, and a ratio of R 2 O to a concentration of Al 2 O 3 is greater than or equal to 1.02 and less than 1.1; the glass composition has a softening point less than or equal to 810°C; the glass composition has a high temperature CTE less than or equal to 27×10 -6 /°C; and the glass composition further comprises TiO 2 and Fe 2 O 3 .
A method of evaluating a search area for inter-frame encoding a video, said method comprising: receiving the video captured by an image capture device, the video comprising video frame components; providing an initial search area in a video frame component of the video frame components; receiving optical flow field data associated with the video frame component, wherein at least a portion of the optical flow field data is captured by sensors; determining a modified search area in the video frame component based on the optical flow field data, the modified search area being used to identify connecting information between blocks across the video frame components, such as motion vectors, wherein said determining a modified search area comprises varying the initial search area based on the optical flow field data to yield the modified search area; and wherein the method is characterized in that when the optical flow field data reflect a vertical zoom-in action, wherein the video is capturing objects that are closer to the bottom edge of the optical flow field, varying the initial search area based on the optical flow field data to yield the modified search area comprises: moving the initial search area towards a lower part of the video frame component, and applying a horizontal bias to the search area by expanding the initial search area in a horizontal direction. receiving the video captured by an image capture device, the video comprising video frame components; providing an initial search area in a video frame component of the video frame components; receiving optical flow field data associated with the video frame component, wherein at least a portion of the optical flow field data is captured by sensors; determining a modified search area in the video frame component based on the optical flow field data, the modified search area being used to identify connecting information between blocks across the video frame components, such as motion vectors, wherein said determining a modified search area comprises varying the initial search area based on the optical flow field data to yield the modified search area; and wherein the method is characterized in that when the optical flow field data reflect a vertical zoom-in action, wherein the video is capturing objects that are closer to the bottom edge of the optical flow field, varying the initial search area based on the optical flow field data to yield the modified search area comprises: moving the initial search area towards a lower part of the video frame component, and applying a horizontal bias to the search area by expanding the initial search area in a horizontal direction. moving the initial search area towards a lower part of the video frame component, and applying a horizontal bias to the search area by expanding the initial search area in a horizontal direction.
A digital printing system , comprising: a flexible intermediate transfer member ITM , which is configured to receive ink droplets from an ink supply system to form an image thereon, and to transfer the image to a target substrate; and a dancer assembly , characterised in that the dancer assembly comprises a fluid chamber and a rotatable element fitted in the fluid chamber, the fluid chamber comprising an inlet configured to receive pressurized fluid into the fluid chamber, wherein the pressurized fluid causes the rotatable element to move relative to the fluid chamber and to apply tension to the ITM while being rotated by the ITM, further comprising an opening, which is sized and shaped to fit snugly over the rotatable element, wherein the pressurized fluid causes the rotatable element to protrude from the fluid chamber via the opening. a flexible intermediate transfer member ITM , which is configured to receive ink droplets from an ink supply system to form an image thereon, and to transfer the image to a target substrate; and a dancer assembly ,
A method for manufacturing polymeric decorative panels including, in order, the steps of: a) inkjet printing an image on a first thermoplastic foil using an aqueous pigmented inkjet ink and drying the inkjet printed image; b) applying a second thermoplastic foil on the inkjet printed image; c) heat pressing the first and second thermoplastic foils into a decorative laminate; and d) cutting the laminate into a decorative panel ; wherein the aqueous pigmented inkjet ink contains polymeric resin particles and a self-dispersing colour pigment; wherein at least one of the first and second thermoplastic foils is a transparent foil; and wherein the heat pressing is performed at a temperature above 130°C and a pressure of more than 10 bar. a) inkjet printing an image on a first thermoplastic foil using an aqueous pigmented inkjet ink and drying the inkjet printed image; b) applying a second thermoplastic foil on the inkjet printed image; c) heat pressing the first and second thermoplastic foils into a decorative laminate; and d) cutting the laminate into a decorative panel ;
High-pressure cylinder having an internal core or liner in plastic material and a surface covering consisting of one or more layers of composite material, partially incorporating a nozzle applied to the upper end portion of neck of the core shaped to receive at least one accessory, such as a tap, a valve, or other, said nozzle comprising an internal metal element and an external metal element which can be screwed one to the other to tighten on said neck of the core , characterised in that said neck of the core has a slight narrowing of diameter starting from its mouth, such as to determine an internal conical surface suitable for coupling with a corresponding external conical surface of the internal element of the nozzle , and an external conical surface suitable for coupling with a corresponding internal conical surface of a modular ring in plastic or elastomeric material placed between said neck and said external element of the nozzle, and in that said nozzle also comprises an annular protective element in plastic or elastomeric material , acting as a bearing, which is interposed between a widened enlarged base of the nozzle and the upper part of the core of the cylinder .