mhurhangee/patent-ind-claim-en huggingface dataset:
Line intended to be submerged in a body of water, comprising: - an outer sheath defining an inner volume ; - an internal sheath arranged in the internal volume and defining a passage for transporting a fluid, in particular hydrocarbons, the internal sheath defining with the outer sheath an annular space ; - at least one layer of tensile armor arranged in the annular space ; characterized in that the line comprises at least one metallic sacrificial layer located in the annular space , the sacrificial layer comprising a porous body having a minimum specific surface area of at least 5 cm 2 /g, and in that the sacrificial layer has a linear metallic area per meter of line of at least 0.3 m 2 /m. - an outer sheath defining an inner volume ; - an internal sheath arranged in the internal volume and defining a passage for transporting a fluid, in particular hydrocarbons, the internal sheath defining with the outer sheath an annular space ; - at least one layer of tensile armor arranged in the annular space ; characterized in that the line comprises at least one metallic sacrificial layer located in the annular space , the sacrificial layer comprising a porous body having a minimum specific surface area of at least 5 cm 2 /g, and in that the sacrificial layer has a linear metallic area per meter of line of at least 0.3 m 2 /m. characterized in that the line comprises at least one metallic sacrificial layer located in the annular space , the sacrificial layer comprising a porous body having a minimum specific surface area of at least 5 cm 2 /g, and in that the sacrificial layer has a linear metallic area per meter of line of at least 0.3 m 2 /m.
Device for displaceably guiding a load, in particular a sliding door , having a horizontal guide for at least one anchor which receives the load and has permanent magnets (7, 8 or 9, 10) of opposite poles which are separated from each other by a non-ferromagnetic intermediate piece and are arranged vertically one above the other and have pole axes which are perpendicular in relation to the vertical guide plane of the anchor , wherein the permanent magnets (7, 8; 9, 10) are arranged in a ferromagnetic circuit substantially closed by the horizontal guide , characterised in that two permanent magnets (7, 8 or 9, 10) are arranged in each case on both sides of a ferromagnetic centre web between two ferromagnetic outer webs , the permanent magnets (7, 9 or 8, 10) lying opposite one another in relation to the centre web being of opposite poles and belong to separate ferromagnetic circuits formed by the common centre web and one of the outer webs , and in that the horizontal guide forms either the centre web or the outer webs and completely covers the pole surfaces of the upper permanent magnets .
A recombinant von Willebrand Factor (rVWF) for use in a method for treating minor gastrointestinal bleeding or moderate gastrointestinal bleeding in a subject with severe von Willebrand Disease (VWD) comprising administering to the subject at least one dose of the rVWF ranging from 40 IU/kg to 60 IU/kg, wherein the first dose further comprises recombinant Factor VIII (rFVIII).
A deformation sensor (200; 300; 400; 500) comprising: a substrate (202; 302; 402; 502); and a first electrode (206; 306; 406; 506), a second electrode (208; 312;412; 512) and one or more third electrodes (210; 308; 408; 508), wherein adjacent electrodes of the first and third electrodes and adjacent electrodes of the second and third electrodes are separated by a gap of constant width, the gap (212; 336; 418) containing a material loaded with conductive or semiconductive nanoparticles ; the deformation sensor being arranged so that deformation of the substrate (202; 302) causes the resistance between adjacent electrodes to change, and current to flow with changed resistance from the first electrode through said one or more third electrodes to the second electrode . a substrate (202; 302; 402; 502); and a first electrode (206; 306; 406; 506), a second electrode (208; 312;412; 512) and one or more third electrodes (210; 308; 408; 508), wherein adjacent electrodes of the first and third electrodes and adjacent electrodes of the second and third electrodes are separated by a gap of constant width, the gap (212; 336; 418) containing a material loaded with conductive or semiconductive nanoparticles ; the deformation sensor being arranged so that deformation of the substrate (202; 302) causes the resistance between adjacent electrodes to change, and current to flow with changed resistance from the first electrode through said one or more third electrodes to the second electrode .
An active stylus for capacitive interaction with a sensor, the stylus comprising an elongate housing , a first and a second electrode, and a stylus controller , wherein the first electrode and the second electrode are disposed at one end portion of the elongate housing such that the locations of the first and the second electrode are different from each other in a direction of a central axis of the elongate housing , and said active stylus being controlled by the stylus controller for signal transmission to the sensor and for signal reception therefrom, the stylus controller being configured to control the first electrode for transmission and reception of a signal to and from the sensor and to control the second electrode for transmission of a signal to the sensor ; characterised in that the stylus controller is configured to perform, in response to a received signal of allocation information of a first downlink time slot transmitted from the sensor by the first electrode , signal transmission by the first downlink time slot to the sensor for transmitting a position indicating signal (P1); and wherein, in response to a received signal of allocation information of a second downlink time slot from the sensor by the first electrode , signal transmission by the second downlink time slot from the second electrode to the sensor is performed for transmitting a tilt indicating signal (T1) to allow tilt detection of the active stylus .
A double-sided fabric integrally knitted from a first face yarn and a second face yarn , the double-sided fabric comprising a knitted sack and a knitted fabric portion connected to the knitted sack , characterized in that : the knitted fabric portion consists of a plurality of loops knitted from the first face yarn together with the second face yarn , wherein each of the plurality of loops comprises both of the first face yarn and the second face yarn ; the knitted sack comprises a front sack portion and a back sack portion divided from the knitted fabric portion, the back sack portion spaced apart from the front sack portion to define a space of the knitted sack between the front sack portion and the back sack portion, the front sack portion consists of a plurality of front loops knitted from the first face yarn of the knitted fabric portion, and the back sack portion consists of a plurality of back loops knitted from the second face yarn of the knitted fabric portion; and a cord material is inserted into the space of the knitted sack and extends back and forth between the front loops and the back loops, wherein: the cord material is folded and stacked between the front loops and the back loops, and isolated in the space of the knitted sack ; when viewing from a first side of the double-sided fabric, the cord material is disposed behind the front loops and in front of the back loops; and when viewing from a second side of the double-sided fabric opposite to the first side, the cord material is disposed in front of the front loops and behind the back loops.
An aircraft fuel system comprising: a fuel vessel containing a non-mixture fuel; a protective vessel arranged about the fuel vessel such that the fuel vessel is contained within the protective vessel and a protective space is defined between an outer surface of a vessel wall of the fuel vessel and an inner surface of a vessel wall of the protective vessel; at least one mounting structure fixedly positioning the fuel vessel within the protective vessel ; a fuel consumption device configured to consume the non-mixture fuel; a fuel output fluidly connecting an interior of the fuel vessel to the fuel consumption device , the fuel output fluidly isolated from the protective space ; a relief output fluidly connecting the protective space to a relief flow path , the relief output and relief flow path configured to vent gas from the protective space and remove any non-mixture fuel from the protective space, wherein the protective space is filled with an inert gas and the aircraft fuel system comprises an auxiliary system configured to receive the inert gas from the protective space . a fuel vessel containing a non-mixture fuel; a protective vessel arranged about the fuel vessel such that the fuel vessel is contained within the protective vessel and a protective space is defined between an outer surface of a vessel wall of the fuel vessel and an inner surface of a vessel wall of the protective vessel; at least one mounting structure fixedly positioning the fuel vessel within the protective vessel ; a fuel consumption device configured to consume the non-mixture fuel; a fuel output fluidly connecting an interior of the fuel vessel to the fuel consumption device , the fuel output fluidly isolated from the protective space ; a relief output fluidly connecting the protective space to a relief flow path , the relief output and relief flow path configured to vent gas from the protective space and remove any non-mixture fuel from the protective space, wherein the protective space is filled with an inert gas and the aircraft fuel system comprises an auxiliary system configured to receive the inert gas from the protective space .
A method for controlling preemption of a transmission resource over an unlicensed carrier comprising: Determining (S601), by a base station, an extended Clear Channel Assessment, CCA, parameter N; and Signaling (S602), by the base station, the extended CCA parameter N to a user equipment to instruct the user equipment to access a channel to transmit a signal when a following condition is satisfied: the user equipment detects the channel being clear throughout N CCA detection periods of time in any one CCA detection window. Determining (S601), by a base station, an extended Clear Channel Assessment, CCA, parameter N; and Signaling (S602), by the base station, the extended CCA parameter N to a user equipment to instruct the user equipment to access a channel to transmit a signal when a following condition is satisfied: the user equipment detects the channel being clear throughout N CCA detection periods of time in any one CCA detection window.
An air bag safety system for cushioning restraint of a vehicle occupant during an impact event, the safety system comprising: a variable depth inflatable air bag cushion adapted to be inflatable to one of a first depth and at least a second depth greater than the first depth, wherein the air bag cushion includes at least one vent opening ; and a displaceable vent blocking cover element of substantially pliable material supported at a surface of the air bag cushion and disposed in opposing relation to said at least one vent opening , wherein the cover element is adjustable from a first operative position relative to the vent opening when the air bag cushion is inflated to said first depth and to a second different operative position relative to the vent opening when the air bag cushion is inflated to said second depth so as to vary emission of inflation gas through said at least one vent opening in a predefined manner based upon the depth of inflation of the air bag cushion , characterized in that the cover element is operatively attached to at least one elongate tensioning strap extending between the cover element and a shape defining tethering element operatively connected to a surface of the air bag cushion and to a releasable attachment mechanism, such that the airbag cushion is selectively inflatable to the first depth or the second depth. a variable depth inflatable air bag cushion adapted to be inflatable to one of a first depth and at least a second depth greater than the first depth, wherein the air bag cushion includes at least one vent opening ; and a displaceable vent blocking cover element of substantially pliable material supported at a surface of the air bag cushion and disposed in opposing relation to said at least one vent opening , wherein the cover element is adjustable from a first operative position relative to the vent opening when the air bag cushion is inflated to said first depth and to a second different operative position relative to the vent opening when the air bag cushion is inflated to said second depth so as to vary emission of inflation gas through said at least one vent opening in a predefined manner based upon the depth of inflation of the air bag cushion , characterized in that the cover element is operatively attached to at least one elongate tensioning strap extending between the cover element and a shape defining tethering element operatively connected to a surface of the air bag cushion and to a releasable attachment mechanism, such that the airbag cushion is selectively inflatable to the first depth or the second depth.
Miniaturized active hydraulic valve, comprising a valve chamber arranged in a housing and having at least one inlet and at least one outlet being different from the same, wherein a wall of the valve chamber comprises an shifting member movable in the direction of the inlet and/or the outlet , and wherein a fluid-filled drive chamber is arranged on a side of the wall opposite the valve chamber , characterized in that the valve comprises a micro pump , and that the drive chamber is connected only by means of a fluid-carrying duct to this micropump by means of which an amount of working fluid being sufficient for the valve stroke can be conveyed into this drive chamber and out of the same in an opposite direction, so that the shifting member can be actively deflected by working fluid which can be pressurized by means of the micropump , so that its position can be changed relative to the inlet and/or outlet , such that the same can be closed by means of the shifting member , wherein by varying the pressure of the working fluid the flow rate of the valve is controllable, so that a variable throttle is provided.
An optical filter, wherein the optical filter comprises a wavelength selective scattering layer, wherein the wavelength selective scattering layer has a near-infrared scattering ratio of less than 0.9, the near-infrared scattering ratio being a ratio of an average near-infrared scattering to an average visible scattering, wherein the wavelength selective scattering layer has a visible reflective haze ratio of greater than 0.5, the visible reflective haze ratio being a ratio of an average visible diffusive reflectance to an average visible total reflectance, and wherein a difference between a % total visible reflectance and a % diffuse visible reflectance of the wavelength selective scattering layer is less than 20.
A device , comprising: a first image processing module configured to obtain a first object image in a first picture and first internal feature points of the first object image ; a second image processing module configured to obtain a second object image in a second picture ; a pixel weight graph generating module configured to generate a pixel weight graph of the first object image , wherein in the pixel weight graph, the weights of the first internal feature points are higher than the weights of points other than the first internal feature points; and an image transformation module configured to perform a style transfer on the first object image with the second object image as a style reference template; wherein the device further comprises an image fusion module configured to integrate the first object image subjected to the style transfer and the second object image in the second picture by performing fusion on pixels of the first object image and the second object image according to the weight corresponding to each point in the pixel weight graph, so that in each pixel subjected to fusion, the higher the weight of the pixel is, the closer the attribute value of the pixel is to the attribute value of the pixel of the first object image subjected to the style transfer, and the lower the weight of the pixel is, the closer the attribute value of the pixel is to the attribute value of the pixel of the second object image. a first image processing module configured to obtain a first object image in a first picture and first internal feature points of the first object image ; a second image processing module configured to obtain a second object image in a second picture ; a pixel weight graph generating module configured to generate a pixel weight graph of the first object image , wherein in the pixel weight graph, the weights of the first internal feature points are higher than the weights of points other than the first internal feature points; and an image transformation module configured to perform a style transfer on the first object image with the second object image as a style reference template; wherein the device further comprises an image fusion module configured to integrate the first object image subjected to the style transfer and the second object image in the second picture by performing fusion on pixels of the first object image and the second object image according to the weight corresponding to each point in the pixel weight graph, so that in each pixel subjected to fusion, the higher the weight of the pixel is, the closer the attribute value of the pixel is to the attribute value of the pixel of the first object image subjected to the style transfer, and the lower the weight of the pixel is, the closer the attribute value of the pixel is to the attribute value of the pixel of the second object image.
A power supply system , comprising a charger configured to convert a voltage of power input from an external power supply through a charging port into a voltage required for charging a battery , wherein the charger comprises: a rectification circuit configured to convert an alternating current voltage of the input power into a direct current voltage; and a booster circuit configured to boost the direct current voltage toward a voltage of the battery ; and an intra-system power supply device connected to the charger , characterized in that the intra-system power supply device comprises an auxiliary power supply ; and a voltage converter configured to convert a voltage of an output power of the auxiliary power supply into a voltage corresponding to a voltage of the external power supply , and to supply output power of the auxiliary power supply through the booster circuit to the battery . a charger configured to convert a voltage of power input from an external power supply through a charging port into a voltage required for charging a battery , wherein the charger comprises: a rectification circuit configured to convert an alternating current voltage of the input power into a direct current voltage; and a booster circuit configured to boost the direct current voltage toward a voltage of the battery ; and an intra-system power supply device connected to the charger , characterized in that the intra-system power supply device comprises an auxiliary power supply ; and a voltage converter configured to convert a voltage of an output power of the auxiliary power supply into a voltage corresponding to a voltage of the external power supply , and to supply output power of the auxiliary power supply through the booster circuit to the battery . a rectification circuit configured to convert an alternating current voltage of the input power into a direct current voltage; and a booster circuit configured to boost the direct current voltage toward a voltage of the battery ; and an intra-system power supply device connected to the charger , characterized in that the intra-system power supply device comprises an auxiliary power supply ; and a voltage converter configured to convert a voltage of an output power of the auxiliary power supply into a voltage corresponding to a voltage of the external power supply , and to supply output power of the auxiliary power supply through the booster circuit to the battery .
Process for the production of particle board, MDF board or HDF board, wherein this process comprises the step of recycling particle board material, MDF and/or HDF board material in which recycled chips and/or recycled wood fibers are produced; and wherein the process comprises the step in which the particle board material, the MDF and/or HDF board material is wetted, heated using steam and pressurized; wherein this material is kept under pressure and at an elevated temperate for a certain time, wherein the process comprises the step of steam explosion of the wetted, heated and pressurized particle board material, MDF and/or HDF board material, in which recycled chips and/or recycled wood fibers are produced during the steam explosion; wherein the steam explosion is a multistage steam explosion, meaning that the expansion of the pressure takes place in a number of steps; wherein this process comprises the step of supplying the recycled chips and/or the recycled wood fibers as base material in a production process - preferably in a dry production process - for particle board, MDF board or HDF board. wherein this process comprises the step of recycling particle board material, MDF and/or HDF board material in which recycled chips and/or recycled wood fibers are produced; and wherein the process comprises the step in which the particle board material, the MDF and/or HDF board material is wetted, heated using steam and pressurized; wherein this material is kept under pressure and at an elevated temperate for a certain time, wherein the process comprises the step of steam explosion of the wetted, heated and pressurized particle board material, MDF and/or HDF board material, in which recycled chips and/or recycled wood fibers are produced during the steam explosion; wherein the steam explosion is a multistage steam explosion, meaning that the expansion of the pressure takes place in a number of steps; wherein this process comprises the step of supplying the recycled chips and/or the recycled wood fibers as base material in a production process - preferably in a dry production process - for particle board, MDF board or HDF board.