mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent article having a vertical direction and a lateral direction, the absorbent article comprising: an absorbent main body ; a first waist portion ; and a second waist portion , the first waist portion including a stretchy sheet and a non-stretchy sheet , the stretchy sheet being capable of stretching and contracting in the lateral direction, the non-stretchy sheet being overlaid on the stretchy sheet, a lower end portion of the stretchy sheet being folded upward, a number of layers of the stretchy sheet being greater in the lower end portion of the stretchy sheet than in an upper end portion of the stretchy sheet, the stretchy sheet being located on a skin side in a thickness direction of the first waist portion with respect to the absorbent main body , and in the lower end portion of the stretchy sheet, a folded portion of the stretchy sheet being overlapped with the absorbent main body in the vertical direction. an absorbent main body ; a first waist portion ; and a second waist portion , the first waist portion including a stretchy sheet and a non-stretchy sheet , the stretchy sheet being capable of stretching and contracting in the lateral direction, the non-stretchy sheet being overlaid on the stretchy sheet, a lower end portion of the stretchy sheet being folded upward, a number of layers of the stretchy sheet being greater in the lower end portion of the stretchy sheet than in an upper end portion of the stretchy sheet, the first waist portion including a stretchy sheet and a non-stretchy sheet , the stretchy sheet being capable of stretching and contracting in the lateral direction, the non-stretchy sheet being overlaid on the stretchy sheet, a lower end portion of the stretchy sheet being folded upward, a number of layers of the stretchy sheet being greater in the lower end portion of the stretchy sheet than in an upper end portion of the stretchy sheet, the stretchy sheet being located on a skin side in a thickness direction of the first waist portion with respect to the absorbent main body , and in the lower end portion of the stretchy sheet, a folded portion of the stretchy sheet being overlapped with the absorbent main body in the vertical direction.
Method for manufacturing a composite structure , the said composite structure comprising a lower sub-assembly , the lower sub-assembly being at least provided with first fibres and a first resin , the said composite structure comprising an electrically conductive layer provided with a metallic member , the said composite structure comprising an upper sub-assembly at least provided with second fibres and a second resin , the said method involving an arrangement of the said metallic member on the lower sub-assembly and a placement of at least one shield on at least one electrical connection area of the said metallic member , characterised in that the said placement of at least one shield involves the placement of at least one shield extending in an elevation direction (Z) from a lower face arranged against the metallic member to an upper face , the said at least one shield comprising at least one cavity , the said at least one cavity passing all the way through the shield in the elevation direction (Z) by extending from the lower face to the upper face , the said method involving a placement of the upper sub-assembly at least against a portion of the upper face of the metallic member not covered by the at least one shield.
A fastening apparatus for fastening an apparatus to a device , comprising an apparatus-side first part which is fastenable or fastened or attached to the apparatus and which has a first surface region (21-1) facing the device ; a device-side second part which is fastenable or fastened or attached to the device and which is fastened or fastenable to the first part and which has a second surface region (22-1) facing the apparatus and the first surface region (21-1), wherein one of the two parts has at least one centering pin and the other of the two parts has at least one corresponding centering opening into which the centering pin can enter to align the two parts, wherein one or more damping elements composed of a resilient material, in particular of an elastic material, preferably plastic, are attached to one of the two surface regions and come into contact with the other of the two surface regions on the fastening; and a clamping element for jointly clamping the two parts so that they are held aligned and pressed toward one another, characterized in that the first part has a first plate (21-2) which can have an angular or a round or a circular outline whose side remote from the apparatus has the first surface region (21-1) in which the centering pin is disposed and whose side facing the apparatus has a first fastening means (21-3) toward the apparatus , preferably a first threaded pin which can be formed coaxially with the centering pin .
Security seal comprising a seal base and a seal head , which is connected to the seal base and has at least one locking tab , each locking tab being movably connected to the seal head via at least one hinge element , characterized in that the seal base has at least two latching projections and two slots through which the distal end of the seal base can be inwardly deformed.
A method for adjusting a variable geometry mechanism of a gas turbine engine , the method comprising: monitoring, at a computing device , an engine control request indicative of a desired output power for the gas turbine engine ; characterised by : determining, at the computing device , a rate of change of the engine control request; comparing, at the computing device , the rate of change to a threshold; in response to determining that the rate of change is beyond the threshold, applying, at the computing device , a transient bias map to a steady-state schedule to generate a variable geometry mechanism request indicative of a target position for the variable geometry mechanism; and adjusting a position of the variable geometry mechanism toward the target position according to the variable geometry mechanism request, wherein the engine control request is a power control request indicative of a demand for the gas turbine engine to produce output power at a requested power level or the engine control request is a torque control request indicative of a demand for the gas turbine engine to produce thrust at a requested thrust level.. determining, at the computing device , a rate of change of the engine control request; comparing, at the computing device , the rate of change to a threshold; in response to determining that the rate of change is beyond the threshold, applying, at the computing device , a transient bias map to a steady-state schedule to generate a variable geometry mechanism request indicative of a target position for the variable geometry mechanism; and adjusting a position of the variable geometry mechanism toward the target position according to the variable geometry mechanism request, wherein the engine control request is a power control request indicative of a demand for the gas turbine engine to produce output power at a requested power level or the engine control request is a torque control request indicative of a demand for the gas turbine engine to produce thrust at a requested thrust level..
Seal profile , having a visible face , having a seal portion having a resilient material and provided at least in part on the visible face , having an at least partially transparent or partially translucent portion provided at least in part on the visible face , and having a light source enclosed at least in part by the seal portion and arranged in such a way that light emitted thereby at the visible face passes to the outside through the at least partially transparent or partially translucent portion , the resilient material having an at least partially transparent or partially translucent formation, and the at least partially transparent or partially translucent portion being formed in a single piece with the seal portion , characterised in that a plurality of light sources arranged along the seal profile are provided, in particular a plurality of semiconductor light sources attached to a flexible substrate extending in the profile direction, a profile shape of the seal profile providing a cavity or gap which makes it possible to compress the seal portion , the light sources being arranged in the cavity or gap , and the light sources being embedded in an at least partially transparent or partially translucent filler material , which is provided within the cavity or gap and which fills up the cavity or gap only in part and/or is formed slightly deformable.
A communication device comprising: a transmitter (412,414,416,419; 422,424;426;429) to transmit a first communication signal over a first Digital Subscriber Line (DSL) connection using a first group of frequencies; a receiver (422,424,428,429; 412,414,418,419) to receive a second communication signal over a second DSL connection using a second group of frequencies that at least partially overlaps the first group of frequencies; characterized by further comprising: a Near-End Crosstalk (NEXT) canceller , coupled to the transmitter and to the receiver, to determine a crosstalk correlation between the first communication signal and the second communication signal, to generate a crosstalk cancellation signal based on the crosstalk correlation, and to subtract the crosstalk cancellation signal from the second communication signal, wherein the NEXT canceller comprises time delay elements (510-1, 510-2, 510-3, ..., 510-N) to apply respective time delays to the first communication signal, a memory coupled to the time delay elements to store time delayed versions of the first communication signal, a coefficient generator (512-1, 512-2, ..., 512-N ; 514-1, 514-2, ... 514-N) to generate frequency-dependent crosstalk coefficients, and multipliers coupled to the memory and to the coefficient generator to apply the frequency-dependent crosstalk coefficients to the time delayed versions of the first communication signal to generate the crosstalk cancellation signal. a transmitter (412,414,416,419; 422,424;426;429) to transmit a first communication signal over a first Digital Subscriber Line (DSL) connection using a first group of frequencies; a receiver (422,424,428,429; 412,414,418,419) to receive a second communication signal over a second DSL connection using a second group of frequencies that at least partially overlaps the first group of frequencies;
An absorbent article configured to provide accurate bodily exudate visualization when viewing a wearer-facing surface of the absorbent article, the absorbent article comprising: a liquid permeable topsheet forming a portion of the wearer-facing surface of the absorbent article ; a liquid impermeable backsheet ; and an absorbent core positioned at least partially intermediate the liquid permeable topsheet and the liquid impermeable backsheet ; wherein the wearer-facing surface exhibits a Delta C ∗ of greater than 24 and less than 50 when the absorbent article is subjected to the Bodily Exudate Visualization Test disclosed herein; wherein the liquid permeable topsheet is in face-to-face contact with the absorbent core ;wherein the absorbent article is free of a material between the topsheet and the absorbent core ; and wherein the topsheet has an opacity of in the range of 15% to 70% according to the Opacity Test disclosed herein. a liquid permeable topsheet forming a portion of the wearer-facing surface of the absorbent article ; a liquid impermeable backsheet ; and an absorbent core positioned at least partially intermediate the liquid permeable topsheet and the liquid impermeable backsheet ; wherein the wearer-facing surface exhibits a Delta C ∗ of greater than 24 and less than 50 when the absorbent article is subjected to the Bodily Exudate Visualization Test disclosed herein; wherein the liquid permeable topsheet is in face-to-face contact with the absorbent core ;wherein the absorbent article is free of a material between the topsheet and the absorbent core ; and wherein the topsheet has an opacity of in the range of 15% to 70% according to the Opacity Test disclosed herein.
An optical system for a compact panoramic camera, the optical system comprising: a convex reflector having (i) a first diameter and (ii) a non-parabolic, axially symmetric aspheric surface that provides a virtual curved and compressed image of a panoramic scene having a non-parabolic image compression; a hardware aperture spaced from the convex reflector, the hardware aperture positioned to filter out light rays other than those reflected directly from the convex reflector; an image sensor ; a decompression lens positioned to receive the virtual curved and compressed image filtered by the hardware aperture, the hardware aperture positioned between the convex reflector and the decompression lens, the decompression lens configured to: decompress the virtual curved and compressed image into a real image having (i) a high optical resolution and (ii) a parabolic image decompression; and project the real image having the high optical resolution and the parabolic image decompression onto the image sensor ; wherein the image sensor (32; 33) is positioned to receive the real image having the high optical resolution and the parabolic image decompression from the decompression lens . a convex reflector having (i) a first diameter and (ii) a non-parabolic, axially symmetric aspheric surface that provides a virtual curved and compressed image of a panoramic scene having a non-parabolic image compression; a hardware aperture spaced from the convex reflector, the hardware aperture positioned to filter out light rays other than those reflected directly from the convex reflector; an image sensor ; a decompression lens positioned to receive the virtual curved and compressed image filtered by the hardware aperture, the hardware aperture positioned between the convex reflector and the decompression lens, the decompression lens configured to: decompress the virtual curved and compressed image into a real image having (i) a high optical resolution and (ii) a parabolic image decompression; and project the real image having the high optical resolution and the parabolic image decompression onto the image sensor ; decompress the virtual curved and compressed image into a real image having (i) a high optical resolution and (ii) a parabolic image decompression; and project the real image having the high optical resolution and the parabolic image decompression onto the image sensor ; wherein the image sensor (32; 33) is positioned to receive the real image having the high optical resolution and the parabolic image decompression from the decompression lens .
A method for wireless communication, comprising: receiving , by a first user equipment, UE, associated with a first vehicle, an indication of a resource use pattern of a radar signal transmitted by a second UE associated with a second vehicle; configuring a receiver of the first UE based at least in part on receiving the indication of the resource use pattern; receiving the radar signal transmitted by the second UE based at least in part on configuring the receiver; and determining a spatial parameter about the second UE based at least in part on receiving the radar signal transmitted by the second UE. receiving , by a first user equipment, UE, associated with a first vehicle, an indication of a resource use pattern of a radar signal transmitted by a second UE associated with a second vehicle; configuring a receiver of the first UE based at least in part on receiving the indication of the resource use pattern; receiving the radar signal transmitted by the second UE based at least in part on configuring the receiver; and determining a spatial parameter about the second UE based at least in part on receiving the radar signal transmitted by the second UE.
Method for manufacturing an aluminum alloy sheet, wherein a) an aluminum alloy is prepared, with the composition, as % by weight Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, b) a slab is cast by vertical semicontinuous casting, c) optionally, said slab is homogenized, d) said optionally homogenized slab is hot rolled, in two successive steps, in order to obtain a sheet d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, e) optionally, said sheet is cold rolled, to a thickness of between 1 and 7 mm, f) optionally, a final heat treatment of said optionally cold-rolled sheet is carried out at a temperature below 300°C. a) an aluminum alloy is prepared, with the composition, as % by weight Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, b) a slab is cast by vertical semicontinuous casting, c) optionally, said slab is homogenized, d) said optionally homogenized slab is hot rolled, in two successive steps, in order to obtain a sheet d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, e) optionally, said sheet is cold rolled, to a thickness of between 1 and 7 mm, f) optionally, a final heat treatment of said optionally cold-rolled sheet is carried out at a temperature below 300°C.
(+)-α-Dihydrotetrabenazine succinate salt.
A structure for supporting a bioprosthetic heart valve comprising: a cylindrical anchoring structure defining a central longitudinal axis, the cylindrical anchoring structure comprising: an inflow ring including at least one sinusoidal-shaped wire having a plurality of peaks and troughs ; an outflow ring including at least one sinusoidal-shaped wire having a plurality of peaks and troughs , and at least one flexible commissure post having a longitudinal axis, the flexible commissure post connecting the inflow ring and the outflow ring , wherein the flexible commissure post has a bending flexibility along a plane defined by a surface containing all straight lines connecting any point on the central longitudinal axis of the cylindrical anchoring structure and any point on the longitudinal axis of the flexible commissure post , wherein the at least one flexible commissure post includes a paddle portion operably connected to the outflow ring , the paddle portion including an axial slot extending along the longitudinal axis thereof. an inflow ring including at least one sinusoidal-shaped wire having a plurality of peaks and troughs ; an outflow ring including at least one sinusoidal-shaped wire having a plurality of peaks and troughs , and at least one flexible commissure post having a longitudinal axis, the flexible commissure post connecting the inflow ring and the outflow ring ,
A table-top kitchen device, comprising a first food preparation chamber and at least a second food preparation chamber , wherein the first and second food preparation chambers are operable simultaneously to prepare food that in use is received therein, wherein the first and second food preparation chamber are physically separated from each other in such way that each chamber includes an autonomous cooking environment with independently settable and controllable cooking conditions, wherein the cooking conditions comprise a cooking method and/or at least one cooking parameter, wherein the table-top kitchen device further comprises a base comprising a support structure for mounting the first food preparation chamber and the second food preparation chamber , characterized in that the base comprises means for effecting the desired cooking conditions in the food preparation chambers, and wherein at least one chamber is arranged to prepare food by air-based frying. wherein the first and second food preparation chambers are operable simultaneously to prepare food that in use is received therein, wherein the first and second food preparation chamber are physically separated from each other in such way that each chamber includes an autonomous cooking environment with independently settable and controllable cooking conditions, wherein the cooking conditions comprise a cooking method and/or at least one cooking parameter, wherein the table-top kitchen device further comprises a base comprising a support structure for mounting the first food preparation chamber and the second food preparation chamber , characterized in that the base comprises means for effecting the desired cooking conditions in the food preparation chambers, and wherein at least one chamber is arranged to prepare food by air-based frying.
A terminal comprising: a receiving section that receives downlink control information, DCI, including one or more transmit power control, TPC, commands respectively applied to an uplink transmission on one cell; and a control section that applies TPC commands included in a plurality of the DCI respectively received on a plurality of cells to TPC for an uplink transmission on a cell wherein, for a first uplink transmission transmitted before a second uplink transmission, the control section does not accumulatively apply a TPC command included in second DCI for scheduling the second uplink transmission received before first DCI for scheduling the first uplink transmission. a receiving section that receives downlink control information, DCI, including one or more transmit power control, TPC, commands respectively applied to an uplink transmission on one cell; and a control section that applies TPC commands included in a plurality of the DCI respectively received on a plurality of cells to TPC for an uplink transmission on a cell