mhurhangee/patent-ind-claim-en huggingface dataset:
A washer-dryer comprising: a first housing which is open at the top; a second housing mounted on the first housing , the second housing being open at the bottom; a first tub disposed in the first housing ; a first drum disposed to be rotatable in the first tub ; a dryer configured to suction in air from the first tub , the first housing and the second housing and supply hot air to an inside of the first drum and disposed towards one side of the first tub ; and a connector which connects the dryer to the first tub , wherein the connector comprises an inside air inlet into which air in the first tub flows and an outside air inlet into which air in the first housing and the second housing flows, wherein the bottom of the dryer is below the top of the first tub , and wherein the second housing provides a space above the dryer for integrating a second drum and a second tub . a first housing which is open at the top; a second housing mounted on the first housing , the second housing being open at the bottom; a first tub disposed in the first housing ; a first drum disposed to be rotatable in the first tub ; a dryer configured to suction in air from the first tub , the first housing and the second housing and supply hot air to an inside of the first drum and disposed towards one side of the first tub ; and a connector which connects the dryer to the first tub , wherein the connector comprises an inside air inlet into which air in the first tub flows and an outside air inlet into which air in the first housing and the second housing flows, wherein the bottom of the dryer is below the top of the first tub , and wherein the second housing provides a space above the dryer for integrating a second drum and a second tub .
Method for manufacturing a seat padding comprising: - /A/ providing a padding comprising a 3D entanglement of irregularly arranged continuous thermoplastic fibers forming loops welded together, the padding having a length direction (Xa, Xb), a width direction (Ya, ; Yb) and a thickness direction (Za, Zb), and a border on the periphery extending along the edges of the padding - /B/ hot pressing the 3D entanglement of fibers, at all or part of the periphery of the padding, so as to produce a densified and stiffened border (Bdr) of the padding, relative to a central zone of the padding of less density and of less rigidity, and wherein the hot pressing at /B/ generates a densified and stiffened border (Bdr) which adjoins with a proximal end (Exp) the central zone of the padding, and has a free distal end (Exd), and wherein the densified and stiffened border (Brd) extends along its thickness (EP1), over a portion of the thickness (Ep2) of the central zone, lengthwise along the edge of the periphery, and widthwise from its proximal end (Exp) to its distal end (Exd), and wherein the densified and stiffened border (Brd) forms a shoulder with a free edge (CHL) of the central zone of the padding and wherein the method provides for: - /C/ the folding of the densified and stiffened border (Brd) against the free edge (CHL) of the central zone. - /A/ providing a padding comprising a 3D entanglement of irregularly arranged continuous thermoplastic fibers forming loops welded together, the padding having a length direction (Xa, Xb), a width direction (Ya, ; Yb) and a thickness direction (Za, Zb), and a border on the periphery extending along the edges of the padding - /B/ hot pressing the 3D entanglement of fibers, at all or part of the periphery of the padding, so as to produce a densified and stiffened border (Bdr) of the padding, relative to a central zone of the padding of less density and of less rigidity, and wherein the hot pressing at /B/ generates a densified and stiffened border (Bdr) which adjoins with a proximal end (Exp) the central zone of the padding, and has a free distal end (Exd), and wherein the densified and stiffened border (Brd) extends along its thickness (EP1), over a portion of the thickness (Ep2) of the central zone, lengthwise along the edge of the periphery, and widthwise from its proximal end (Exp) to its distal end (Exd), and wherein the densified and stiffened border (Brd) forms a shoulder with a free edge (CHL) of the central zone of the padding and wherein the method provides for: - /C/ the folding of the densified and stiffened border (Brd) against the free edge (CHL) of the central zone. - /C/ the folding of the densified and stiffened border (Brd) against the free edge (CHL) of the central zone.
A tire comprising a pair of sidewall portions , wherein an outer surface of at least one of the sidewall portions includes at least one concave mark recessed from a reference surface , the or each concave mark includes a bottom surface and an inner wall surface extending in a depth direction of the or each concave mark to surround the bottom surface , the bottom surface includes a peripheral region extending along a contour of the or each concave mark and a main region surrounded by the peripheral region , the peripheral region includes a shadow region , the shadow region is a region where the shadow of the inner wall surface is formed when light is assumed to be shed to the or each concave mark from a first direction, characterized in that the peripheral region further includes a non-shadow region , the non-shadow region is a region where the shadow of the inner wall surface is not formed when light is assumed to be shed to the or each concave mark from the first direction, each of the shadow region and the non-shadow region is formed with an uneven surface provided with a plurality of minute protuberances , and a width (W2) of the uneven surface of the non-shadow region measured in a direction perpendicular to the contour is smaller than a width (W1) of the uneven surface of the shadow region measured in a direction perpendicular to the contour . an outer surface of at least one of the sidewall portions includes at least one concave mark recessed from a reference surface , the or each concave mark includes a bottom surface and an inner wall surface extending in a depth direction of the or each concave mark to surround the bottom surface , the bottom surface includes a peripheral region extending along a contour of the or each concave mark and a main region surrounded by the peripheral region , the peripheral region includes a shadow region , the shadow region is a region where the shadow of the inner wall surface is formed when light is assumed to be shed to the or each concave mark from a first direction, characterized in that the peripheral region further includes a non-shadow region , the non-shadow region is a region where the shadow of the inner wall surface is not formed when light is assumed to be shed to the or each concave mark from the first direction, each of the shadow region and the non-shadow region is formed with an uneven surface provided with a plurality of minute protuberances , and a width (W2) of the uneven surface of the non-shadow region measured in a direction perpendicular to the contour is smaller than a width (W1) of the uneven surface of the shadow region measured in a direction perpendicular to the contour .
A setting device for fastening an element to a workpiece , the setting device comprising a guide device , which can be brought into mechanical contact with the element and which has an axial hollow space for guiding the element , and an axially movable ram for moving the element in a setting direction through the hollow space of the guide device , wherein the guide device has at least one first and one second guide element (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D"), wherein the guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D") bound the axial hollow space and are preloaded by means of a preloading device by a preloading force acting radially inwardly on at least one guide element, in particular all of the guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D"), and wherein the preloading device comprises at least one elastic preloading element which generates the preloading force and which is at least partly produced from an elastomer, wherein guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D") which are adjacent in the peripheral direction are separated from one another by at least one interval, in particular by a slit , wherein a respective at least one insulation element is arranged in the interval and wherein the preloading element and the insulation element are formed in one piece, wherein the preloading element is an annular element which is closed in the peripheral direction and which surrounds the guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D") at their radial outer side in the peripheral direction, characterized in that the geometry of the insulation element is substantially constant in the longitudinal direction of the insulation element. wherein guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D") which are adjacent in the peripheral direction are separated from one another by at least one interval, in particular by a slit , wherein a respective at least one insulation element is arranged in the interval and wherein the preloading element and the insulation element are formed in one piece, wherein the preloading element is an annular element which is closed in the peripheral direction and which surrounds the guide elements (30A, 30B, 30C, 30C', 30C", 30D, 30D', 30D") at their radial outer side in the peripheral direction, characterized in that the geometry of the insulation element is substantially constant in the longitudinal direction of the insulation element.
Cosmetic non therapeutic use of a cosmetic combination product for an administration that is simultaneous, separated or spread over time, comprising: a first cosmetic composition comprising glucosamine sulfate, a second cosmetic composition comprising hyaluronic acid and a third cosmetic composition comprising collagen to induce the acid hyaluronic synthesis by the fibroblasts.
A method performed by a user equipment for triggering cell reselection, the method comprising: based on a Radio Resource Control, RRC, connection setup request or an RRC resume request being initiated, determining (S11) whether a number of consecutive Listen-Before-Talk, LBT, failures exceeds a preset threshold; and based on the number of consecutive LBT failures exceeding the preset threshold, performing (S12) cell reselection, wherein said performing cell reselection comprises determining (S21) a set of target cells, sorting (S22) the target cells in the set, and selecting (S23) the target cells that are ranked first successively to perform cell reselection; wherein said determining (S21) the set of target cells comprises: determining (S31) a frequency priority of each available cell; determining the set of target cells based on the frequency priorities of the available cells, wherein prior to said determining (S31) the frequency priority of each available cell, the method further comprises: determining a first available cell based on a frequency where a current serving cell is located; and decreasing the frequency priority of the first available cell located on the frequency by a preset level. based on a Radio Resource Control, RRC, connection setup request or an RRC resume request being initiated, determining (S11) whether a number of consecutive Listen-Before-Talk, LBT, failures exceeds a preset threshold; and based on the number of consecutive LBT failures exceeding the preset threshold, performing (S12) cell reselection, wherein said performing cell reselection comprises determining (S21) a set of target cells, sorting (S22) the target cells in the set, and selecting (S23) the target cells that are ranked first successively to perform cell reselection; wherein said determining (S21) the set of target cells comprises: determining (S31) a frequency priority of each available cell; determining the set of target cells based on the frequency priorities of the available cells, determining (S31) a frequency priority of each available cell; determining the set of target cells based on the frequency priorities of the available cells, wherein prior to said determining (S31) the frequency priority of each available cell, the method further comprises: determining a first available cell based on a frequency where a current serving cell is located; and decreasing the frequency priority of the first available cell located on the frequency by a preset level. determining a first available cell based on a frequency where a current serving cell is located; and decreasing the frequency priority of the first available cell located on the frequency by a preset level.
A process for removing water and salt from a neutralized polyether polyol, comprising: (a) removing a portion of the water from the neutralized polyether polyol under at least atmospheric pressure to produce a neutralized and partially dewatered crude polyether polyol mixture in a neutralization vessel; (b) transferring the neutralized and partially dewatered crude polyether polyol mixture from the neutralization vessel to a hold vessel; (c) transferring the neutralized and partially dewatered crude polyether polyol mixture from the hold vessel through a filter to produce a filtrate of the at least partially neutralized and partially dewatered crude polyether polyol mixture; (d) passing the filtrate through an evaporator to remove additional water from the filtrate under vacuum and recirculating the polyether polyol exiting the evaporator to the hold vessel if the polyether polyol has a water content of more than a predetermined value, preferably 500 ppm when measured according to ASTM D4672 . (a) removing a portion of the water from the neutralized polyether polyol under at least atmospheric pressure to produce a neutralized and partially dewatered crude polyether polyol mixture in a neutralization vessel; (b) transferring the neutralized and partially dewatered crude polyether polyol mixture from the neutralization vessel to a hold vessel; (c) transferring the neutralized and partially dewatered crude polyether polyol mixture from the hold vessel through a filter to produce a filtrate of the at least partially neutralized and partially dewatered crude polyether polyol mixture; (d) passing the filtrate through an evaporator to remove additional water from the filtrate under vacuum
A membrane electrode assembly (MEA) comprising a gas diffusion electrode, a membrane, and a catalytic layer positioned between or inside the gas diffusion electrode and the membrane, wherein the catalytic layer comprises a graduated ionomer concentration wherein a higher concentration of ionomer is found closest to the membrane and a lower concentration of ionomer is found closest to the gas diffusion electrode; and wherein the catalytic layer further comprises a graduated degree of hydrophobicity such that water in the MEA is directed away from the membrane and towards the gas diffusion layer; and wherein the catalytic layer further comprises catalytic material having a higher surface area concentrated towards the gas diffusion layer and catalytic material having a lower surface area concentrated towards the membrane.
An inertial unit comprising an inertial core that is connected to a control unit and that includes three gyros that are mounted relative to one another so as to have sensing axes (X, Y, Z) that are substantially perpendicular to one another, the gyros being vibrating axisymmetric gyros with hemispherical resonators, the unit being characterized in that the core is mounted on a carousel arranged to drive the inertial core in rotation about an axis of rotation at at least one predetermined frequency of rotation.
A method for determining a location of a fault , having a fault type, on a powerline that is at a first end connected to an electricity grid and that is at a second end connected to a power source for applying an alternating electrical signal with a fundamental frequency to the powerline , the method comprising: a) obtaining, using a measuring device at a measurement location on the powerline , time-dependent data of a voltage on the powerline and of a current through the powerline at the measurement location, wherein the time-dependent data is obtained during a time period after fault inception, wherein the time-dependent data comprises fundamental and nonfundamental frequency waveform components, and wherein a duration of the time period is at least a duration of one full period of the fundamental frequency, b) removing the fundamental frequency components from the time-dependent data, c) calculating, from the time-dependent data, a virtual fault inductance for at least two different potential fault locations, by inputting the time-dependent data into an equivalent circuit model suitable for the fault type, and by means of time-domain calculations on the nonfundamental frequency waveform components, and d) deriving, from the virtual fault inductance for each of the potential fault locations, a location on the line at which the virtual fault inductance is substantially zero. a) obtaining, using a measuring device at a measurement location on the powerline , time-dependent data of a voltage on the powerline and of a current through the powerline at the measurement location, wherein the time-dependent data is obtained during a time period after fault inception, wherein the time-dependent data comprises fundamental and nonfundamental frequency waveform components, and wherein a duration of the time period is at least a duration of one full period of the fundamental frequency, b) removing the fundamental frequency components from the time-dependent data, c) calculating, from the time-dependent data, a virtual fault inductance for at least two different potential fault locations, by inputting the time-dependent data into an equivalent circuit model suitable for the fault type, and by means of time-domain calculations on the nonfundamental frequency waveform components, and d) deriving, from the virtual fault inductance for each of the potential fault locations, a location on the line at which the virtual fault inductance is substantially zero.
Method for detecting a load distribution in a roller bearing having at least one row of rollers and a strain sensor attached to a first ring, wherein the first ring is configured to rotate relative to a second ring, characterized in that the method comprises the steps of: a. detecting peak heights and peak positions in roller load induced strain signals obtained from the strain sensor; and b. calculating a load acting on at least one angle range of the second ring using peak heights of a plurality of peak positions falling in said angle range. a. detecting peak heights and peak positions in roller load induced strain signals obtained from the strain sensor; and b. calculating a load acting on at least one angle range of the second ring using peak heights of a plurality of peak positions falling in said angle range.
A pressure jaw assembly for a sealing jaw arrangement of a filling machine, said pressure jaw assembly comprising: a pressure jaw frame , a pressure element arranged to be moved relative said pressure jaw frame , a compressing means arranged at least partly between said pressure jaw frame and said pressure element , said compressing means being arranged to influence the relative movement between said pressure element and said pressure jaw frame , a guide for guiding said pressure element , wherein said guide is connected to said pressure jaw frame , and wherein said guide is arranged externally of said pressure element , outside of the pressure element such that the pressure element is free of any internal guides, wherein said pressure jaw frame comprises a first end portion and a second end portion arranged distant from said first end portion , and wherein said guide is a first guide and said pressure jaw assembly further comprises a second guide , said first guide being connected to said first end portion , and said second guide being connected to said second end portion , wherein said compressing means is a compression spring , the pressure jaw assembly further comprises at least two elongated cutting rails arranged in connection with said pressure element , said elongated cutting rails being arranged on an opposite side of the pressure element compared to the compressing means . a pressure jaw frame , a pressure element arranged to be moved relative said pressure jaw frame , a compressing means arranged at least partly between said pressure jaw frame and said pressure element , said compressing means being arranged to influence the relative movement between said pressure element and said pressure jaw frame , a guide for guiding said pressure element , wherein said guide is connected to said pressure jaw frame , and wherein said guide is arranged externally of said pressure element , outside of the pressure element such that the pressure element is free of any internal guides, wherein said pressure jaw frame comprises a first end portion and a second end portion arranged distant from said first end portion , and wherein said guide is a first guide and said pressure jaw assembly further comprises a second guide , said first guide being connected to said first end portion , and said second guide being connected to said second end portion , wherein said compressing means is a compression spring , the pressure jaw assembly further comprises at least two elongated cutting rails arranged in connection with said pressure element , said elongated cutting rails being arranged on an opposite side of the pressure element compared to the compressing means .
A vehicle seat device for a motor vehicle, with a seat cushion and with a cover arrangement , arranged on said seat cushion , having a foam layer , a visible cover being arranged on a first side of the foam layer and fastened by at least one seam on the foam layer , and at least one pull-in strap being fastened on a second side of the foam layer and pulled into a recess of the seat cushion to fasten the cover arrangement on the seat cushion and/or on a vehicle seat component supporting the seat cushion , characterised in that at least one particularly flexible support strap is arranged on the second side of the foam layer and fastened on the cover arrangement by the at least one seam at several fastening points spaced apart from one another, and in that the pull-in strap is fastened on the support strap between the fastening points .