mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle latch , in particular for a vehicle rear door , comprising a latch cover and a locking mechanism consisting substantially of a catch and at least one pawl , further comprising at least one coupling element , and comprising at least one electric drive , it being possible for the coupling element to assume different positions (I, II, III) and the coupling element interacting with a drive element of the drive and a central locking mechanism , the coupling element being connected to the drive element in order to assume its positions (I, II, III), the drive element and/or the latch cover having a ratchet contour having at least two position indentations (19.1, 19.2, 19.3), and a spring mechanism being provided, the spring mechanism interacting with the position indentations (19.1, 19.2, 19.3) of the ratchet contour , whereby the coupling element can be positioned in the positions (I, II, III), characterized in that the spring mechanism is designed as a leg spring, in particular a double leg spring.
A memory management method, applied to a terminal, comprising: when a target running application is hot started, determining a frequently accessed memory page of the target running application based on a memory page on which a page exception occurs in the target running application; and after the target running application is switched to a background for running, retaining the frequently accessed memory page in a memory, and swapping a rarely accessed memory page from the memory to a swap partition of a storage, wherein the rarely accessed memory page is a memory page other than the frequently accessed memory page. when a target running application is hot started, determining a frequently accessed memory page of the target running application based on a memory page on which a page exception occurs in the target running application; and after the target running application is switched to a background for running, retaining the frequently accessed memory page in a memory, and swapping a rarely accessed memory page from the memory to a swap partition of a storage, wherein the rarely accessed memory page is a memory page other than the frequently accessed memory page.
A phase measurement method for measuring a phase of scattered light from an optical fiber to be measured, the phase measurement method comprising: splitting continuous light of a single wavelength into two light beams; pulsing one of the two split light beams; and changing the pulsed beam in frequency; inputting the pulsed light beam into the optical fiber to be measured; inputting the scattered light from the optical fiber to be measured and the other light beam of the two split light beams as local light to a 90-degree optical hybrid ; acquiring a measured in-phase component value and a measured quadrature component value of a signal obtained by coherently detecting with the scattered light and the local light through the 90-degree optical hybrid ; Hilbert transforming the measured in-phase component value to acquire a calculated quadrature component value and inverse Hilbert transforming the measured quadrature component value to acquire a calculated in-phase component value; averaging the measured in-phase component value and the calculated in-phase component value to acquire an estimated in-phase component value and averaging the measured quadrature component value and the calculated quadrature component value to acquire an estimated quadrature component value; and calculating a four-quadrant inverse tangent of a quotient obtained by dividing the estimated quadrature component value by the estimated in-phase component value. splitting continuous light of a single wavelength into two light beams; pulsing one of the two split light beams; and changing the pulsed beam in frequency; inputting the pulsed light beam into the optical fiber to be measured; inputting the scattered light from the optical fiber to be measured and the other light beam of the two split light beams as local light to a 90-degree optical hybrid ; acquiring a measured in-phase component value and a measured quadrature component value of a signal obtained by coherently detecting with the scattered light and the local light through the 90-degree optical hybrid ; Hilbert transforming the measured in-phase component value to acquire a calculated quadrature component value and inverse Hilbert transforming the measured quadrature component value to acquire a calculated in-phase component value; averaging the measured in-phase component value and the calculated in-phase component value to acquire an estimated in-phase component value and averaging the measured quadrature component value and the calculated quadrature component value to acquire an estimated quadrature component value; and calculating a four-quadrant inverse tangent of a quotient obtained by dividing the estimated quadrature component value by the estimated in-phase component value.
A packaging method for packaging an OLED device formed on a base substrate, comprising: separating a graphene thin film formed on a copper foil from the copper foil; and packaging the OLED device using the graphene thin film, wherein the method of separating a graphene thin film formed on a copper foil from the copper foil and packaging the OLED device using the graphene thin film comprises: step S10: adhering a surface of the copper foil on which no graphene thin film is formed to a fixing substrate by a double-sided adhesive ; step S11: processing a viscous polymer into a fluid state and pouring the fluid state viscous polymer onto a surface of the copper foil on which the graphene thin film is formed; step S12: gluing the viscous polymer with an adhesive tape after curing the viscous polymer, and then stripping a composite film formed of the graphene thin film and the viscous polymer from the copper foil; step S13: forming a passivation layer on the OLED device, coating a transparent adhesive on the passivation layer, and adhering a surface of the graphene thin film of the composite film to the transparent adhesive before curing the transparent adhesive; and step S14: curing the transparent adhesive. step S10: adhering a surface of the copper foil on which no graphene thin film is formed to a fixing substrate by a double-sided adhesive ; step S11: processing a viscous polymer into a fluid state and pouring the fluid state viscous polymer onto a surface of the copper foil on which the graphene thin film is formed; step S12: gluing the viscous polymer with an adhesive tape after curing the viscous polymer, and then stripping a composite film formed of the graphene thin film and the viscous polymer from the copper foil; step S13: forming a passivation layer on the OLED device, coating a transparent adhesive on the passivation layer, and adhering a surface of the graphene thin film of the composite film to the transparent adhesive before curing the transparent adhesive; and step S14: curing the transparent adhesive.
A track pin for a track chain assembly , the track pin comprising: a body , the body being made from a steel alloy, the steel alloy having a composition comprising iron, a nitride-forming element, and silicon, the composition of the steel alloy comprising at least 0.5 percent by weight of silicon; wherein the body includes an external "white layer" nitrided surface , wherein the composition of the steel alloy comprises: between 0.2 percent and 0.4 percent by weight of carbon, between 0.5 percent and 1.6 percent by weight of manganese, between 0.5 percent and 2.0 percent by weight of silicon, between 0.4 percent and 1.5 percent by weight of chromium, between 0.03 percent and 0.3 percent by weight of vanadium, between 0.07 percent and 0.3 percent by weight of aluminum , balance iron and residual elements. a body , the body being made from a steel alloy, the steel alloy having a composition comprising iron, a nitride-forming element, and silicon, the composition of the steel alloy comprising at least 0.5 percent by weight of silicon; wherein the body includes an external "white layer" nitrided surface , wherein the composition of the steel alloy comprises: between 0.2 percent and 0.4 percent by weight of carbon, between 0.5 percent and 1.6 percent by weight of manganese, between 0.5 percent and 2.0 percent by weight of silicon, between 0.4 percent and 1.5 percent by weight of chromium, between 0.03 percent and 0.3 percent by weight of vanadium, between 0.07 percent and 0.3 percent by weight of aluminum , balance iron and residual elements. between 0.2 percent and 0.4 percent by weight of carbon, between 0.5 percent and 1.6 percent by weight of manganese, between 0.5 percent and 2.0 percent by weight of silicon, between 0.4 percent and 1.5 percent by weight of chromium, between 0.03 percent and 0.3 percent by weight of vanadium, between 0.07 percent and 0.3 percent by weight of aluminum , balance iron and residual elements.
3D pop-up card having a foldable base card which has an inner side and an outer side, the base card being foldable along a fold and being reversibly transferable from a folded, closed state to an unfolded, open state, wherein a foldable figure is fixed to the inner side of the base card and the foldable figure unfolds autonomously into a three-dimensional structure when the base card is transferred into an open state, wherein the base card is double-layered, the layer which is on the inside in the closed state having at least one slit on each of the two sides of the fold , wherein the base card and the foldable figure are connected to one another via L-shaped connecting pieces , and the first leg (A) of an L-shaped connecting piece engaging in a slit and the second leg (B) of an L-shaped connecting piece being attached to the foldable figure , wherein each L-shaped connecting piece has several indentations between the first leg (A) and the second leg (B) to provide flexibility.
A grinding machine for grinding a surface of an object, wherein the grinding machine comprises a. a plurality of grinding brushes , i. which are mounted such that they can be rotated about a brush axis of rotation, b. at least one brush holder , i. which is mounted on the at least one of the grinding brushes and which ii. is mounted such that it can be rotated about a holder axis of rotation , and c. a conveying device for conveying the object through the grinding machine at a feed speed, wherein the grinding machine features an input device and an output device, wherein a brush speed of rotation about the brush axis of rotation and/or a holder speed of rotation about the holder axis of rotation and/or the feed speed can be adjusted using the input device, the grinding machine being characterized in that the output device is configured in such a way that an anticipated grinding result can be displayed by the output device, said result being dependent on the parameters set by the input device. a. a plurality of grinding brushes , i. which are mounted such that they can be rotated about a brush axis of rotation, i. which are mounted such that they can be rotated about a brush axis of rotation, b. at least one brush holder , i. which is mounted on the at least one of the grinding brushes and which ii. is mounted such that it can be rotated about a holder axis of rotation , and i. which is mounted on the at least one of the grinding brushes and which ii. is mounted such that it can be rotated about a holder axis of rotation , and c. a conveying device for conveying the object through the grinding machine at a feed speed, wherein the grinding machine features an input device and an output device, wherein a brush speed of rotation about the brush axis of rotation and/or a holder speed of rotation about the holder axis of rotation and/or the feed speed can be adjusted using the input device, the grinding machine being characterized in that the output device is configured in such a way that an anticipated grinding result can be displayed by the output device, said result being dependent on the parameters set by the input device.
A cable screwing device having a multiplicity of identically shaped lamellae that extend free-standing in an axial direction from a fastening section on the cable screwing device up to an unattached end and that each have a plurality of adjoining sections along their entire axial extension, each section having a different cross-sectional area or a cross-sectional area that varies over the axial extension of said lamella, as viewed in the axial cross section, wherein the cross-sectional area of the lamellae decreases, at least section by section, along their axial extension from the fastening section up to a point having the smallest cross-sectional area A3, and the point of the lamellae having the smallest cross-sectional area A3 is spaced axially from the unattached end thereof, wherein the lamellae have inner surfaces that face radially inward and that, when used as intended, face toward a cable that can be routed through the cable screwing device , and the inner surfaces extend flat and rectilinearly in the axial direction, so that over their overall axial extension H, the lamellae form a substantially constant inner diameter of the cable screwing device , characterized in that the cross-sectional area of the lamellae decreases from a cross-sectional area A1 to a cross-sectional area A2 in an inlet section adjoining the cable screwing device , and the inlet section has an axial extension ranging from 0.1 to 0.2 of the overall extension H of the lamellae . so that 0.1 < H2/H < 0.2, in particular 0.14 < H2/H < 0.17, and wherein the cross-sectional area of the lamellae in a center section adjoining the inlet section and extending up to the point having the smallest cross-sectional area A3 decreases from the cross-sectional area A2 to the smallest cross-sectional area A3 of the lamellae , wherein 0.3 ≤ A3/A2 ≤ 0.8, in particular 0.5 ≤ A3/A2 ≤ 0.7, more particularly 0.6 ≤ A3/A2 ≤ 0.65.
A pressure-measuring system having at least one measuring lumen which can be filled with a fluid, at least one tube system for connecting a fluid reservoir to the at least one measuring lumen , and an assembly or device for conveying the fluid through the at least one tube system , characterised in that the tube system includes at least one first device for measuring pressure in the fluid, comprising a coupling element , at least one pressure transducer and at least one measuring chamber which can be filled with the fluid, wherein the coupling element with the measuring chamber is mechanically coupled via a membrane to the measuring area of the pressure transducer and the measuring chamber has at least two connection points for a fluid flow, and between the first device and the supply of the fluid, the tube system includes a second device for regulating a fluid flow with a tube section through which fluid can flow and at least one tube clamp , and the second device can be set to the regulation positions open, closed and perfused, wherein in the closed position the lumen of the tube section is completely closed and in the perfused position, through a spacer inside the tube section , the lumen of the tube section is partially, more particularly slightly, open.
An electrical device comprising an electrical high-frequency filter and a shield separating the filter from at least one further electrical component of the device, wherein the filter is configured for filtering an AC signal with a frequency in a range of 25 MHz - 30 MHz, the device further comprising a signal conductor which operably connects the filter to the further component and traverses the shield for transmitting the AC signal from the filter to the component , a feedthrough capacitor system being electrically arranged between the signal conductor and the shield , wherein the feedthrough capacitor system comprises a plurality of surface mount capacitors electrically arranged between the signal conductor and the shield , the surface mount capacitors being surface mounted on a circuit board .
A local exhaust device being installable on a wall or adjacent to a wall, the device comprising: a main body part having an inlet port formed on a lower surface thereof; and a vortex forming device installed on the main body part and configured to form a vortex so as to induce intake of external air through the inlet port, wherein the vortex forming device comprises: a swirler disposed at the inlet port and rotated to form the vortex a driving part is configured to rotate the swirler; and a flow guide disposed at the inlet port and configured to guide air flowing by a rotation of the swirler downward, wherein the flow guide comprises an upper surface disposed at an upper portion of the swirler, wherein the upper surface of the flow guide comprises an open region configured to open the upper portion of the swirler and a closed region configured to block the upper portion of the swirler, characterized in that the upper surface of the flow guide is halved to the open region located at a rear thereof and the closed region located at a front thereof. a main body part having an inlet port formed on a lower surface thereof; and a vortex forming device installed on the main body part and configured to form a vortex so as to induce intake of external air through the inlet port, wherein the vortex forming device comprises: a swirler disposed at the inlet port and rotated to form the vortex a driving part is configured to rotate the swirler; and a flow guide disposed at the inlet port and configured to guide air flowing by a rotation of the swirler downward, wherein the flow guide comprises an upper surface disposed at an upper portion of the swirler, wherein the upper surface of the flow guide comprises an open region a swirler disposed at the inlet port and rotated to form the vortex a driving part is configured to rotate the swirler; and a flow guide disposed at the inlet port and configured to guide air flowing by a rotation of the swirler downward, wherein the flow guide comprises an upper surface disposed at an upper portion of the swirler, wherein the upper surface of the flow guide comprises an open region configured to open the upper portion of the swirler and a closed region configured to block the upper portion of the swirler, characterized in that the upper surface of the flow guide is halved to the open region located at a rear thereof and the closed region located at a front thereof.
Tool carrier , having a tool carrier upper part , in which a tool upper part is accommodated, and having a tool carrier lower part , which can be coupled releasably to the tool carrier upper part and in which a tool lower part is accommodated, wherein the tool upper part and the tool lower part together form a manufacturing tool for producing a composite workpiece having at least one foam layer formed by a foaming reaction mixture, and the tool carrier is mounted in a pivoting frame so as to be pivotable about an axis , characterized in that the tool carrier upper part has at least one tool changer for the coupling of a tool robot, the tool carrier upper part and the tool carrier lower part are movable toward each other only in the vertical direction for opening and closing purposes, for which purpose there are guide columns and guide bushings suitable for this purpose on the tool carrier and, when the tool carrier is assembled, the guide columns are inserted into the guide bushings , and the tool carrier lower part has a clamping plate which is made of a lightweight material and is mounted in a floating manner on an air cushion, which is filled with compressed air, for producing a closing pressure between the tool lower part and the tool upper part and for the controlled release of said closing pressure, wherein there are vertical guide elements for vertically guiding the clamping plate in the tool carrier lower part .
A production method of an insulation material from a semi-finished nonwoven fabric characterized by the method which has the following production stages: - Local application of a polymer emulsion comprising at least one polymer material selected from the group consisting of acrylic, acrylic copolymers, SBR, NBR, EVA, VAE, HDPE and PU materials with the rotary screen-printing method to the semi-finished nonwoven - Scattering a thermoplastic and/or thermoset and/or elastomer in powder form onto the polymer emulsion-coated semi-finished nonwoven fabric - Vacuuming the thermoplastic and/or thermoset and/or elastomer that is not adhered to the polymer emulsion material or is loosely present on the surface of the semi-finished nonwoven and removing it from the area - Fixing the thermoplastic and/or thermoset and/or elastomer coating obtained on the polymer-emulsion coated ridges which are on a part of the said semi-finished nonwoven at a temperature of 120-220 °C and at a time of 0,5-5 minutes, in an infrared heater - Providing shaping to the partially coated nonwoven with the thermoplastic and/or thermoset and/or elastomer, which is obtained from the previous step, by being passed through the cold calender and ensuring the adhesion of the coating to the nonwoven surface - Winding of the cold-calendered material. - Local application of a polymer emulsion comprising at least one polymer material selected from the group consisting of acrylic, acrylic copolymers, SBR, NBR, EVA, VAE, HDPE and PU materials with the rotary screen-printing method to the semi-finished nonwoven - Scattering a thermoplastic and/or thermoset and/or elastomer in powder form onto the polymer emulsion-coated semi-finished nonwoven fabric - Vacuuming the thermoplastic and/or thermoset and/or elastomer that is not adhered to the polymer emulsion material or is loosely present on the surface of the semi-finished nonwoven and removing it from the area - Fixing the thermoplastic and/or thermoset and/or elastomer coating obtained on the polymer-emulsion coated ridges which are on a part of the said semi-finished nonwoven at a temperature of 120-220 °C and at a time of 0,5-5 minutes, in an infrared heater - Providing shaping to the partially coated nonwoven with the thermoplastic and/or thermoset and/or elastomer, which is obtained from the previous step, by being passed through the cold calender and ensuring the adhesion of the coating to the nonwoven surface - Winding of the cold-calendered material.