mhurhangee/patent-ind-claim-en huggingface dataset:
A low pitch roof structure having a pitch of less than 15 degrees, comprising essentially spaced-apart rafters extending from eaves to ridges, underlays lying on top section of the rafters , counter battens covering top section of the rafters , and cross battens extending transversely relative to the rafters and serving to support roof tiles , wherein each counter batten has an approximately omega-shaped cross-section with two side extending flanges ; each underlay is rollable, flexible and waterproof; the side extending flanges of counter battens are employed to press down and stretch the underlays , and to form valleys between neighbouring rafters ; the stretched underlay provide each valley with a rigid surface; and cha racterized in that the roof tiles are each provided with rain bars , that the top section of the rafters is a top extended section , that counter battens cover the full length of each rafter from eaves to ridge; and that first counter battens are fixed in such a way that their eave-side edge is flush with the eave-side longitudinal edge of the first underlay, whereby the first counter battens do not cover the ridge-side longitudinal edge of the first underlay, the ridge-side longitudinal edge being part of an overlapping zone which extends parallel to the ridge-side longitudinal edge of the first underlay, whereby a second underlay is rolled out parallel to the first underlay and extends over the neighbouring rafters and wherein the two underlays overlap each other in the overlapping zone, whereby the overlapping underlays are bonded by adhesive means, such that the valleys form a watertight channel, whereby the eaveside longitudinal edge of the second underlay covers the ridge-side longitudinal edge of the first underlay, whereby the second underlay is fixed by further counter battens that cover the second underlay and the overlapping zone at the rafters.
A method for signaling use of a local protection mechanism associated with a label switched path, LSP, supporting a resource reservation protocol, RSVP, Session, the method comprising: in response to said LSP supporting said RSVP Session switching from a primary source-to-leaf, S2L, sub-LSP to a bypass S2L sub-LSP based on use of said local protection mechanism: generating an upstream RSVP Resv error message configured to trigger a rerouting of said LSP at a root provider edge, PE, node (110-1, 110-2); and propagating a RSVP Path message downstream toward a leaf PE node (110-3) to advertise the use of the local protection mechanism to the leaf PE node (110-3). generating an upstream RSVP Resv error message configured to trigger a rerouting of said LSP at a root provider edge, PE, node (110-1, 110-2); and propagating a RSVP Path message downstream toward a leaf PE node (110-3) to advertise the use of the local protection mechanism to the leaf PE node (110-3).
Dermis equivalent comprising longitudinally at least two distinct, juxtaposed dermal compartments of different compositions.
Electrical installation device comprising a device base installable in a housing and an electrical installation switch mountable on the front side of the device base and comprising a lower part and an operating element movable relative to the lower part , wherein the lower part has a plurality of switching elements for producing a electrical contact, which switching elements are to be actuated by the operating element , and further electrical components, wherein the switching elements are sensors that measure pressure force, and the operating element is arranged on the lower part in a floating manner, characterized in that freely definable switching actions can be assigned by way of variable setting of the switching parameters of the sensors and the areal evaluation of the action of force on the sensors.
A resource management method performed by a first node in a wireless communication system, the method comprising: transmitting , to a second node, a first backhaul link resource management request that is a first resource configuration request, wherein the first backhaul link resource management request includes first information on backhaul link resources; receiving , from the second node, a second backhaul link resource management request that is a first resource configuration modification request in response to the first resource configuration request, wherein the second backhaul link resource management request includes second information on backhaul link resources; transmitting , to the second node, a first resource configuration modification request response; and receiving , from the second node, a first request response message based on the first resource configuration request and the first resource configuration modification request response. transmitting , to a second node, a first backhaul link resource management request that is a first resource configuration request, wherein the first backhaul link resource management request includes first information on backhaul link resources; receiving , from the second node, a second backhaul link resource management request that is a first resource configuration modification request in response to the first resource configuration request, wherein the second backhaul link resource management request includes second information on backhaul link resources; transmitting , to the second node, a first resource configuration modification request response; and receiving , from the second node, a first request response message based on the first resource configuration request and the first resource configuration modification request response.
A bearing assembly for a turbine engine comprising: a first gas bearing configured to receive a first load from a rotating shaft of the turbine engine ; a transmission disk configured to receive the first load from the first gas bearing , wherein the transmission disk comprises a gas delivery disk , the gas delivery disk comprises: an inner axial opening configured to facilitate a first axial flow through the gas delivery disk ; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing ; and a damping member coupled to a casing of a combustor section of the turbine engine , wherein the damping member is configured to receive the first load from the transmission disk . a first gas bearing configured to receive a first load from a rotating shaft of the turbine engine ; a transmission disk configured to receive the first load from the first gas bearing , wherein the transmission disk comprises a gas delivery disk , the gas delivery disk comprises: an inner axial opening configured to facilitate a first axial flow through the gas delivery disk ; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing ; and an inner axial opening configured to facilitate a first axial flow through the gas delivery disk ; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing ; and a damping member coupled to a casing of a combustor section of the turbine engine , wherein the damping member is configured to receive the first load from the transmission disk .
Adsorbent comprising an alumina support and at least one alkali element, said adsorbent being obtained by the introduction of at least one alkali element, identical to or different from sodium, onto an alumina support the sodium content of which, expressed as Na 2 O equivalent, before the introduction of the alkali element or elements, is comprised between 1500 and 3500 ppm by weight with respect to the total weight of the support.
Wiper blade device with at least one spring rail (12a, 12a'; 12b, 12b'; 12c, 12c'; 12d, 12d'; 12e, 12e'; 12f, 12f'; 12g, 12g'), with at least one wind deflector unit , with at least one wiper strip unit which comprises at least one first partial element, in particular a wiper main body , and at least one wiper lip , and with at least one fixing element which is formed differently from the at least one spring rail (12a, 12a'; 12b, 12b'; 12c, 12c'; 12d, 12d'; 12e, 12e'; 12f, 12f'; 12g, 12g') and, in a mounted state, is provided at least for reducing a clearance between the at least one wiper strip unit and the wind deflector unit and/or between the spring rail (12a, 12a'; 12b, 12b'; 12c, 12c'; 12d, 12d'; 12e, 12e'; 12f, 12f'; 12g, 12g') and/or at least one partial element of the wiper strip unit and the at least one wiper lip in order to produce a magnetic force-fitting connection, a materially bonded connection and/or a form-fitting connection, which is produced by deformation of the wiper strip unit between the wiper strip unit and the wind deflector unit and/or the spring rail (12a, 12a'; 12b, 12b'; 12c, 12c'; 12d, 12d'; 12e, 12e'; 12f, 12f'; 12g, 12g'), characterized by at least one clip element (54a, 54a', 54a", 54a′′′), on which the at least one fixing element is arranged, wherein the clip element is provided for at least partially surrounding the at least one wiper strip element and/or the at least one wind deflector unit .
An article comprising: a substrate ; and an environmental barrier coating disposed over the substrate , wherein the environmental barrier coating comprises at least one hermetic self-sealing layer formed from a mixture comprising an alkaline earth metal aluminosilicate in an amount of between 10 volume percent and 50 volume percent of the mixture and a rare-earth silicate in an amount of between 50 volume percent and 90 volume percent of the mixture, wherein the at least one hermetic self-sealing layer exhibits substantially no net remnant or residual expansion when subjected to high temperature heat treatment, wherein the expression substantially no net remnant or residual expansion refers to a range of -0.2% to + 0.2% expansion of a subject coating layer when measured on a freestanding body of the as-deposited subject coating layer via dilatometer when it is heated for the "first time" to a temperature in the range of 800°C to 1350°C, wherein the freestanding body is a freestanding body of mainly amorphous as-deposited air plasma sprayed coating material; and wherein the environmental barrier coating is an air plasma sprayed environmental barrier coating. a substrate ; and an environmental barrier coating disposed over the substrate , wherein the environmental barrier coating comprises at least one hermetic self-sealing layer formed from a mixture comprising an alkaline earth metal aluminosilicate in an amount of between 10 volume percent and 50 volume percent of the mixture and a rare-earth silicate in an amount of between 50 volume percent and 90 volume percent of the mixture, wherein the at least one hermetic self-sealing layer exhibits substantially no net remnant or residual expansion when subjected to high temperature heat treatment, wherein the expression substantially no net remnant or residual expansion refers to a range of -0.2% to + 0.2% expansion of a subject coating layer when measured on a freestanding body of the as-deposited subject coating layer via dilatometer when it is heated for the "first time" to a temperature in the range of 800°C to 1350°C, wherein the freestanding body is a freestanding body of mainly amorphous as-deposited air plasma sprayed coating material; and wherein the environmental barrier coating is an air plasma sprayed environmental barrier coating.
A hair conditioner composition comprising A) 0.01 to 5 wt %,by weight of the total composition, of a blend comprising i) starch particles having a Dv particle size of from 1 to 12 microns; and ii) a hydrophobic non-silicone oil; in a weight ratio of starch to oil of from 0.5:1 to 1: 0.5; B) 0.01 to 5 wt % of an emulsified non-silicone oil; wherein A) and B) are dispersed within: C) a conditioning gel phase comprising a cationic surfactant and a fatty alcohol; and wherein the conditioner is free from silicone. A) 0.01 to 5 wt %,by weight of the total composition, of a blend comprising i) starch particles having a Dv particle size of from 1 to 12 microns; and ii) a hydrophobic non-silicone oil; in a weight ratio of starch to oil of from 0.5:1 to 1: 0.5; i) starch particles having a Dv particle size of from 1 to 12 microns; and ii) a hydrophobic non-silicone oil; B) 0.01 to 5 wt % of an emulsified non-silicone oil;
A method of separating material, comprising: receiving material into a first sorting cell , wherein the first sorting cell comprises a first sensor and a first diverter ; sorting, using the first sensor, the material into a first accept group and a first reject group based on a content of the received material; receiving the first accept group into a second sorting cell , wherein the second sorting cell comprises a second sensor and a second diverter; sorting, using the second sensor, the first accept group into a second accept group and a second reject group based on the content; receiving the first reject group into a third sorting cell , wherein the third sorting cell has a third sensor and a third diverter; and sorting, using the third sensor, the first reject group into a third accept group and a third reject group based on the content; wherein at least two of the first sorting cell, the second sorting cell, and the third sorting cell are configured to sort the content differently; characterized in that the method further comprises: combining the third accept group and the second reject group ; receiving the third accept group and the second reject group into a fourth sorting cell , wherein the fourth sorting cell comprises a fourth sensor and a fourth diverter; and sorting, using the fourth sensor, the third accept group and the second reject group into a fourth accept group and a fourth reject group based on the content. receiving material into a first sorting cell , wherein the first sorting cell comprises a first sensor and a first diverter ; sorting, using the first sensor, the material into a first accept group and a first reject group based on a content of the received material; receiving the first accept group into a second sorting cell , wherein the second sorting cell comprises a second sensor and a second diverter; sorting, using the second sensor, the first accept group into a second accept group and a second reject group based on the content; receiving the first reject group into a third sorting cell , wherein the third sorting cell has a third sensor and a third diverter; and sorting, using the third sensor, the first reject group into a third accept group and a third reject group based on the content; wherein at least two of the first sorting cell, the second sorting cell, and the third sorting cell are configured to sort the content differently; characterized in that the method further comprises: combining the third accept group and the second reject group ; receiving the third accept group and the second reject group into a fourth sorting cell , wherein the fourth sorting cell comprises a fourth sensor and a fourth diverter; and sorting, using the fourth sensor, the third accept group and the second reject group into a fourth accept group and a fourth reject group based on the content.
A device for depositing paste patterns, in particular of ignition charge, on the surface of the channel of a tube , in particular a combustible tube, the device comprising a frame supporting a first mechanical assembly A for holding, positioning and moving the tube, and a second mechanical assembly B for extruding paste for depositing said paste patterns, the assemblies A and B cooperating with one another, Characterized in that assembly A: - comprises a first table mounted on a second table , these two tables enabling the movement along a horizontal axis Y positioned along the central axis of the tube and along an axis X positioned in the horizontal direction orthogonal to the axis Y, and - incorporates on the first table a system for holding and rotating the tube along an axis of rotation Z. - comprises a first table mounted on a second table , these two tables enabling the movement along a horizontal axis Y positioned along the central axis of the tube and along an axis X positioned in the horizontal direction orthogonal to the axis Y, and - incorporates on the first table a system for holding and rotating the tube along an axis of rotation Z.
A carton for packaging one or more articles comprising a base panel (16; 116; 216), first side panel (14A/14B; 114A/114B; 214A/214B), second side panel (18A/18B; 118A/118B; 218A/218B), first top panel (12; 112; 212) and second top panel (20; 120; 220), forming a tubular structure, the first and second top panels being disposed in face contacting relationship with each other, the carton comprising a first set of end closure panels for at least partially closing a first end of the tubular structure, the first set of end closure panels including a first top end closure panel (22A, 30A; 122A, 130A; 222A, 230A) hinged to one of the first and second top panels (12; 112; 212, 20; 120; 220), and wherein a first reinforcing panel (34A; 134A; 234A) is struck at least in part from the one of the first and second top panels, the first reinforcing panel being folded about a first hinged connection (40A; 140A; 240A so as to be in face contacting relationship with the first top end closure panel, and the first top end closure panel comprises a first handle structure (32; 132; 232) including a first aperture, and wherein the first reinforcing panel comprises a second handle structure (36; 136; 236) including a second aperture, the first and second apertures being in registry with one another such that the first and second apertures together provide a first single handle opening.
Exterior sub-assembly for a timepiece, or for a watch, comprising a first component having rims protruding from a first skirt alternated with first recesses , and a second component including wings protruding from a second skirt alternated with second recesses , arranged to occupy a first disassembled position of insertion in which said first component and said second component have a first angular orientation with respect to each other, or to occupy a second, assembled and locked position in which said first component and said second component have a second angular orientation with respect to each other, different from said first angular orientation, and are held axially in a bayonet mount between at least two said rims and at least two said wings , said sub-assembly including at least one third component (20; 30) which is arranged to be radially or, respectively, axially inserted between said first component and said second component and fixed in rotation with respect to one of said components, and which includes at least one radially or, respectively, axially elastically deformable area , said deformable area being arranged to oppose a resistance torque of variable moment to any relative tangential torque between said first component and said second component , characterized in that said deformable area including at least one catch arranged to cooperate with at least one complementary relief portion comprised in whichever one of the components with respect to which said third component (20; 30) is free to rotate, and any passage of a said catch over a said complementary relief portion generating a said resistance torque tending to gradually resist the relative rotational movement between said first component and said second component , at least one said catch being arranged for the relative angular indexing in the indexing position between said first component and said second component , and characterized in that , in said first disassembled position of insertion, said first component and said second component have a first angular orientation with respect to each other, and are held at a distance from one another by repulsion means including at least one sealing gasket , and in that , in said second, assembled and locked position, said first component and said second component are held axially against a resistance force exerted by said repulsion means.
A method of block partitioning for video encoding or decoding for a video encoder or a video decoder respectively, the method comprising: receiving input data associated with a current block of video data; determining a partitioning tree structure corresponding to a conditional partitioning process for partitioning the current block of video data into one or more final sub-blocks; and applying an encoding or decoding process comprising prediction process, transform process or both to the current block of video data by applying the encoding or decoding process at a level corresponding to the final sub-blocks; characterized in that the conditional partitioning process comprises a conditional binary partitioning process that uses at least a first constraint, defining that if a given block of the partitioning tree structure is partitioned into an above block and a below block using horizontal binary partition and the above block is split into a left block and a right block using vertical binary partition, then the below block is not allowed to be split into a left block and a right block, or a second constraint, defining that if the given block of the partitioning tree structure is partitioned into a left block and a right block using vertical binary partition and the left block is split into an above block and a below block using horizontal binary partition, then the right block is not allowed to be split into an above block and a below block. receiving input data associated with a current block of video data; determining a partitioning tree structure corresponding to a conditional partitioning process for partitioning the current block of video data into one or more final sub-blocks; and applying an encoding or decoding process comprising prediction process, transform process or both to the current block of video data by applying the encoding or decoding process at a level corresponding to the final sub-blocks; characterized in that the conditional partitioning process comprises a conditional binary partitioning process that uses at least a first constraint, defining that if a given block of the partitioning tree structure is partitioned into an above block and a below block using horizontal binary partition and the above block is split into a left block and a right block using vertical binary partition, then the below block is not allowed to be split into a left block and a right block, or a second constraint, defining that if the given block of the partitioning tree structure is partitioned into a left block and a right block using vertical binary partition and the left block is split into an above block and a below block using horizontal binary partition, then the right block is not allowed to be split into an above block and a below block.