mhurhangee/patent-ind-claim-en huggingface dataset:
A gel composition comprising the reaction product of a condensation curable mixture comprising: 0.5 - 45 % by weight silicone resin comprising at least two hydroxyl groups; 99.5 - 55 % by weight of at least one silanol-terminated siloxane fluid; and a co-curable compound comprising an amino group, wherein the condensation curable mixture is curable at room temperature. 0.5 - 45 % by weight silicone resin comprising at least two hydroxyl groups; 99.5 - 55 % by weight of at least one silanol-terminated siloxane fluid; and a co-curable compound comprising an amino group, wherein the condensation curable mixture is curable at room temperature.
Apparatus for measuring the weight of a trailer, comprising a lever component mounted in a hollow axle beam , which is constructed of a rod-shaped inner axle part inserted into the axle beam and a rocker arm connected thereto, which is intended for holding a wheel bearing , wherein a suspension is formed by spring elements inserted between the inner axle part and the hollow axle beam , further comprising an axle load measuring device , which comprises an elongated measuring body inserted into the inner axle part , the first end of which is rigidly connected to the end of the inner axle part connected to the rocker arm and the second end of which is rigidly connected to the rocker arm in a portion of the inner axle part further away from the rocker arm , wherein a measuring point of the measuring body is located between its two ends , and wherein the lever component including the inner axle part has a comparatively very high hardness compared to the spring elements , so that the maximum spring travel of the suspension is given at least 95% by the spring elements and less than 5% by deformation of the lever component .
A load sensing assembly for a spinal implant, the load sensing assembly comprising: a set screw comprising a central opening that extends from a first end of the set screw toward a second end of the set screw, wherein the second end of the set screw is configured to engage with an anchoring member ; an antenna ; an integrated circuit in communication with the antenna , wherein the integrated circuit is positioned within the central opening of the set screw ; and a plurality of sensors in connection with the integrated circuit , wherein the plurality of sensors are located within the central opening of the set screw in proximity to the second end of the set screw , wherein the plurality of sensors are configured to measure a force between the set screw and a longitudinal member when the set screw is engaged with the anchoring member , and wherein the antenna comprises an opening therethrough, wherein the antenna circumferentially surrounds at least a portion of the set screw . a set screw comprising a central opening that extends from a first end of the set screw toward a second end of the set screw, wherein the second end of the set screw is configured to engage with an anchoring member ; an antenna ; an integrated circuit in communication with the antenna , wherein the integrated circuit is positioned within the central opening of the set screw ; and a plurality of sensors in connection with the integrated circuit , wherein the plurality of sensors are located within the central opening of the set screw in proximity to the second end of the set screw , wherein the plurality of sensors are configured to measure a force between the set screw and a longitudinal member when the set screw is engaged with the anchoring member , and wherein the antenna comprises an opening therethrough, wherein the antenna circumferentially surrounds at least a portion of the set screw .
A method for reducing crest factors, comprising: receiving an input signal, wherein the input signal includes a clipping signal that reduces a peak amplitude of a source signal based on a predetermined clipping level; transposing, using a plurality of multipliers, the input signal to a plurality of transposed signals; generating, using a first plurality of delay taps , a feedback signal based on the plurality of transposed signals wherein the generating comprises: delaying a first one of the plurality of transposed signals using a first one of the first plurality of delay taps ; summing the delayed transposed signal with a second one of the plurality of transposed signals, and repeating the steps of delaying and summing until the first plurality of delay taps is passed to generate the feedback signal, generating a forward path signal using the plurality of transposed signals except the last one used in the summing, the feedback signal, and a second plurality of delay taps ; and generating a windowing signal based on the forward path signal, wherein the windowing signal is used to reduce a crest factor of the source signal. receiving an input signal, wherein the input signal includes a clipping signal that reduces a peak amplitude of a source signal based on a predetermined clipping level; transposing, using a plurality of multipliers, the input signal to a plurality of transposed signals; generating, using a first plurality of delay taps , a feedback signal based on the plurality of transposed signals wherein the generating comprises: delaying a first one of the plurality of transposed signals using a first one of the first plurality of delay taps ; summing the delayed transposed signal with a second one of the plurality of transposed signals, and repeating the steps of delaying and summing until the first plurality of delay taps is passed to generate the feedback signal, generating a forward path signal using the plurality of transposed signals except the last one used in the summing, the feedback signal, and a second plurality of delay taps ; and generating a windowing signal based on the forward path signal, wherein the windowing signal is used to reduce a crest factor of the source signal.
A computer implemented method for determining a color mapping for mapping colors from a source gamut to an output gamut of a printer , the method comprising: identifying, in an initial output gamut of the printer , a region of the initial output gamut which is associated with a defect in an output image printed by the printer ; modifying the initial output gamut to produce a modified output gamut for the printer , the modified output gamut comprising an outer shell of the initial output gamut which is bounded to exclude an inner region of the initial output gamut, wherein the identified region which is associated with the defect lies in the inner region; determining the color mapping which maps the colors from the source gamut to the modified output color gamut for producing a printed output image using the printer . identifying, in an initial output gamut of the printer , a region of the initial output gamut which is associated with a defect in an output image printed by the printer ; modifying the initial output gamut to produce a modified output gamut for the printer , the modified output gamut comprising an outer shell of the initial output gamut which is bounded to exclude an inner region of the initial output gamut, wherein the identified region which is associated with the defect lies in the inner region; determining the color mapping which maps the colors from the source gamut to the modified output color gamut for producing a printed output image using the printer .
A display apparatus comprising: a display panel configured to display an image; a polarizing member (POL) disposed on the display panel and comprising an absorption axis and a transmission axis perpendicular to the absorption axis; and a touch electrode disposed on the display panel and overlapping the polarizing member (POL), the touch electrode comprising a bending area (BA) configured to be bent with respect to a reference axis (Ax) perpendicular to a first direction (DR1), characterized in that the touch electrode has a minimum width (W1) in a direction perpendicular to a second direction (DR2); the first direction (DR1), the second direction (DR2), and an absorption axis direction (DR4) substantially parallel to the absorption axis cross each other; the first direction (DR1) and the absorption axis direction (DR4) form a first directional angle (a1) equal to or less than about 90 degrees; the first direction (DR1) and the second direction (DR2) form a second directional angle (a2) equal to or less than about 90 degrees; the second direction (DR2) and the absorption axis direction (DR4) form a third directional angle (a3) equal to or less than about 90 degrees; and the first directional angle (a1) is the sum of the second directional angle (a2) and the third directional angle (a3). a display panel configured to display an image; a polarizing member (POL) disposed on the display panel and comprising an absorption axis and a transmission axis perpendicular to the absorption axis; and a touch electrode disposed on the display panel and overlapping the polarizing member (POL), the touch electrode comprising a bending area (BA) configured to be bent with respect to a reference axis (Ax) perpendicular to a first direction (DR1), characterized in that the touch electrode has a minimum width (W1) in a direction perpendicular to a second direction (DR2); the first direction (DR1), the second direction (DR2), and an absorption axis direction (DR4) substantially parallel to the absorption axis cross each other; the first direction (DR1) and the absorption axis direction (DR4) form a first directional angle (a1) equal to or less than about 90 degrees; the first direction (DR1) and the second direction (DR2) form a second directional angle (a2) equal to or less than about 90 degrees; the second direction (DR2) and the absorption axis direction (DR4) form a third directional angle (a3) equal to or less than about 90 degrees; and the first directional angle (a1) is the sum of the second directional angle (a2) and the third directional angle (a3).
An optical device , comprising: an array of light-emitting elements , comprising a first subset of light-emitting elements and a second subset of light-emitting elements , wherein the first subset of light-emitting elements is configured to emit light having wavelength Li; a high refractive index material selectively disposed on the second subset of light-emitting elements but not on the first subset of light-emitting elements; and an array of optical elements positioned so as to be illuminated by the first subset of light-emitting elements and by the second subset of light-emitting elements, wherein the optical elements are regularly arranged in a common plane at a pitch P, wherein the common plane is located a distance D from the array of light-emitting elements, and wherein P 2 ≈2L 1 D/N, N being an integer greater than or equal to 1. an array of light-emitting elements , comprising a first subset of light-emitting elements and a second subset of light-emitting elements , wherein the first subset of light-emitting elements is configured to emit light having wavelength Li; a high refractive index material selectively disposed on the second subset of light-emitting elements but not on the first subset of light-emitting elements; and an array of optical elements positioned so as to be illuminated by the first subset of light-emitting elements and by the second subset of light-emitting elements, wherein the optical elements are regularly arranged in a common plane at a pitch P, wherein the common plane is located a distance D from the array of light-emitting elements, and wherein P 2 ≈2L 1 D/N, N being an integer greater than or equal to 1.
A chip package comprising: a housing ; one or more electrical connections coupled to an exterior of the housing ; a heat sink (4; 9) attached to an interior surface of the housing ; a photonic integrated circuit disposed within the housing and attached to the heat sink (4:9) and having at least one waveguide configured to guide a beam of light; and a scanning unit attached to the interior surface of the housing and configured to laterally scan the beam of light across a focal plane outside of the housing , wherein the scanning unit is aligned with, but is a separate component from, the photonic integrated circuit within the housing such that the beam of light is coupled between the photonic integrated circuit and the scanning unit . a housing ; one or more electrical connections coupled to an exterior of the housing ; a heat sink (4; 9) attached to an interior surface of the housing ; a photonic integrated circuit disposed within the housing and attached to the heat sink (4:9) and having at least one waveguide configured to guide a beam of light; and a scanning unit attached to the interior surface of the housing and configured to laterally scan the beam of light across a focal plane outside of the housing , wherein the scanning unit is aligned with, but is a separate component from, the photonic integrated circuit within the housing such that the beam of light is coupled between the photonic integrated circuit and the scanning unit .
An assembly for coupling of a tool on a work arm of a public works vehicle, comprising a secure connection device called a quick coupler, two parallel connection members fitted to the tool , at least one of the connecting members being a cylinder with a circular base, two coupling members for coupling with the connecting members fitted to the secure connection device , said coupling members defining receiving housings for the connection members , a safety member mounted so that it can rotate freely (F19) between a so-called disengaged position in which it allows movement of a first connection member fitted to the tool relative to a first coupling member and a so-called engaged position in which it secures the retention of the first connection member by the first coupling member , at least one locking member movable (F36) between an inactive position in which the retention by a second coupling member fitted to the secure connection device of the second connection member is not locked and an active position in which it locks the retention by the second coupling member of the second connection member , a release member that is movable in translation (F30) adapted to allow rotation (F19) of the safety member from the disengaged position to the engaged position, the release member comprising at least one part (30; 300) that is movable in translation (F30) fixed to the locking member , said movable part (30; 300) of the release member being adapted to be in contact with at least one surface (26, 46, 25, 24; 302) of suitable shape secured to the safety member and said safety member comprising at least one surface adapted to be in sliding contact with at least one surface of suitable shape of the first connection member , said sliding contact inducing a rotation (F19) of the safety member during the displacement of the first connection member out of its receiving housing defined by the first coupling member , characterised in that the rotation (F19) of the safety member during the movement of the first connection member out of its receiving housing defined by the first coupling member takes place in the trigonometric direction, in the direction of an edge of the lower part of the connection device , to a position in which the release member authorises the return of the safety member to a so-called reset position in which the safety member is remote from the first connection member , without any coupling between the tool and the connection device , at least one surface of a part of the safety member being in a so-called engaged position corresponding to a position where the grip of said surface in the housing defined by the first coupling member is maximum, said housing being empty.
A method, comprising: receiving (505; 605) a first portion of a code word associated with a memory medium (130-a; 295-a), the code word comprising a set of bit fields (CwCon, Spare) indicative of a plurality of channel bursts across a plurality of channels (125; 291; 310); characterized in that the method further comprising: determining (510; 610) a code word condition indicated in a bit field (CwCon) of the set of bit fields for at least one channel burst (320-1) of the first portion of the code word, the code word condition comprising a type of the code word indicating a forwarded code word, wherein a forwarded code word type is associated with a second layout different from a first layout associated with a normal code word type associated with user data; determining (515; 620) a forwarding address of the code word based at least in part on the code word condition; and communicating (520; 625) with the memory medium (130-a; 295-a) based at least in part on the forwarding address of the code word. receiving (505; 605) a first portion of a code word associated with a memory medium (130-a; 295-a), the code word comprising a set of bit fields (CwCon, Spare) indicative of a plurality of channel bursts across a plurality of channels (125; 291; 310); characterized in that determining (510; 610) a code word condition indicated in a bit field (CwCon) of the set of bit fields for at least one channel burst (320-1) of the first portion of the code word, the code word condition comprising a type of the code word indicating a forwarded code word, wherein a forwarded code word type is associated with a second layout different from a first layout associated with a normal code word type associated with user data; determining (515; 620) a forwarding address of the code word based at least in part on the code word condition; and communicating (520; 625) with the memory medium (130-a; 295-a) based at least in part on the forwarding address of the code word.
A method of heating fluids comprising: a. supplying a source of high voltage power of at least 100V; characterised by b. transforming said high voltage to low voltage in a range from 22V to 28V; and c. heating a non-insulated wired element with said low voltage to at least 400°C, thereby heating a fluid, the non-insulated wired element comprising substantially 80% nickel and 20% chrome or about 40% nickel and 21% chrome. a. supplying a source of high voltage power of at least 100V; characterised by b. transforming said high voltage to low voltage in a range from 22V to 28V; and c. heating a non-insulated wired element with said low voltage to at least 400°C, thereby heating a fluid, the non-insulated wired element comprising substantially 80% nickel and 20% chrome or about 40% nickel and 21% chrome.
A tire including a tread contacting the road surface and a tire side portion continuous to the tread and positioned inside a tire radial direction of the tread, comprising: a belt layer provided inside the tread in the tire radial direction; a carcass provided inside the belt layer in the tire radial direction, wherein a longitudinal protrusion portion extending along the tire radial direction and projecting outward from a surface of the tire side portion toward an outside of a tire width direction; 160 to 220 of the longitudinal protrusion portions are provided along a tire circumferential direction; a tire radial direction inner end of the longitudinal protrusion portion is located outside, in the tire radial direction, a maximum width position (Wmax) of the tire side portion in the tire width direction; a tire radial direction outer end of the longitudinal protrusion portion is positioned outside, in the tire radial direction, a second straight line (L2) orthogonal to a first straight line (L1) passing through a tire width direction outer end of the belt layer and parallel to the tire radial direction, the second straight line is orthogonal to the first straight line at a position where the first straight line contacts a tire radial direction outer end of the carcass; and the tire radial direction outer end of the longitudinal protrusion portion is positioned inside the tire radial direction of a grounding end of a ground surface (TW) in the tire width direction of the tread. a belt layer provided inside the tread in the tire radial direction; a carcass provided inside the belt layer in the tire radial direction, wherein a longitudinal protrusion portion extending along the tire radial direction and projecting outward from a surface of the tire side portion toward an outside of a tire width direction; 160 to 220 of the longitudinal protrusion portions are provided along a tire circumferential direction; a tire radial direction inner end of the longitudinal protrusion portion is located outside, in the tire radial direction, a maximum width position (Wmax) of the tire side portion in the tire width direction; a tire radial direction outer end of the longitudinal protrusion portion is positioned outside, in the tire radial direction, a second straight line (L2) orthogonal to a first straight line (L1) passing through a tire width direction outer end of the belt layer and parallel to the tire radial direction, the second straight line is orthogonal to the first straight line at a position where the first straight line contacts a tire radial direction outer end of the carcass; and the tire radial direction outer end of the longitudinal protrusion portion is positioned inside the tire radial direction of a grounding end of a ground surface (TW) in the tire width direction of the tread.
A method of preparing cyclododecanone, the method comprising: applying heat while additionally injecting hydrogen peroxide to a mixture of cyclododecene and hydrogen peroxide under a catalyst system including a tungsten compound, a phosphoric acid compound, and an amine compound to prepare epoxidized cyclododecane, wherein in the mixture 1 to 10 parts by weight of the hydrogen peroxide is mixed, based on 100 parts by weight of the cyclododecene; and preparing cyclododecanone by a rearrangement reaction without separation of a reaction mixture including the epoxidized cyclododecane under an alkaline metal halide catalyst; wherein the hydrogen peroxide additionally injected is injected so that the following relation formula is satisfied: 50 ≤ In f ≤ 150 1.0 ≤ In m ≤ 3.0 wherein In f is an injection flow rate per minute (μl/min) of the hydrogen peroxide additionally injected, and In m is a mole ratio (B/A) between cyclododecene (A) and hydrogen peroxide additionally injected (B). applying heat while additionally injecting hydrogen peroxide to a mixture of cyclododecene and hydrogen peroxide under a catalyst system including a tungsten compound, a phosphoric acid compound, and an amine compound to prepare epoxidized cyclododecane, wherein in the mixture 1 to 10 parts by weight of the hydrogen peroxide is mixed, based on 100 parts by weight of the cyclododecene; and preparing cyclododecanone by a rearrangement reaction without separation of a reaction mixture including the epoxidized cyclododecane under an alkaline metal halide catalyst; wherein the hydrogen peroxide additionally injected is injected so that the following relation formula is satisfied: 50 ≤ In f ≤ 150 1.0 ≤ In m ≤ 3.0 wherein In f is an injection flow rate per minute (μl/min) of the hydrogen peroxide additionally injected, and In m is a mole ratio (B/A) between cyclododecene (A) and hydrogen peroxide additionally injected (B).