mhurhangee/ep-ind-claims huggingface dataset:
An adjustable seat mechanism for a seat with a seat cushion and a seat back rest, the seat mechanism comprising: a track having a first longitudinal end, a second longitudinal end and an overall slidable length, said overall slidable length having a comfort range and an entry zone, said entry zone being arranged between said comfort zone and said first longitudinal end; a slide movably mounted on said track to slide along said overall length, said slide being adapted to support the seat cushion; a pitch linkage mounted on said slide and adapted to support the seat back rest, said pitch linkage pivotally connecting the seat back rest to the slide between a recline position and a forward position; a track latch arranged on said slide and fixing said slide to said track in a plurality of track positions in said comfort zone; a forward stop on said slide and selectively blocking said slide from moving from said comfort zone to said entry zone, said forward stop being movable between a stop position and a release position, said stop position blocking said slide from moving from said comfort zone to said entry zone, said release position not blocking said slide from moving from said comfort zone to said entry zone; a forward stop mechanism moving said forward stop into said stop position when said pitch linkage is in said recline position and said slide is in said comfort zone. a track having a first longitudinal end, a second longitudinal end and an overall slidable length, said overall slidable length having a comfort range and an entry zone, said entry zone being arranged between said comfort zone and said first longitudinal end; a slide movably mounted on said track to slide along said overall length, said slide being adapted to support the seat cushion; a pitch linkage mounted on said slide and adapted to support the seat back rest, said pitch linkage pivotally connecting the seat back rest to the slide between a recline position and a forward position; a track latch arranged on said slide and fixing said slide to said track in a plurality of track positions in said comfort zone; a forward stop on said slide and selectively blocking said slide from moving from said comfort zone to said entry zone, said forward stop being movable between a stop position and a release position, said stop position blocking said slide from moving from said comfort zone to said entry zone, said release position not blocking said slide from moving from said comfort zone to said entry zone; a forward stop mechanism moving said forward stop into said stop position when said pitch linkage is in said recline position and said slide is in said comfort zone.
A printing cartridge comprising: a sensing die including a plurality of sensing locations in thermal contact with a fluid container; an on-die controller to select a sensing location of the plurality of sensing locations to activate and to provide a variable threshold voltage; and a voltage comparator to: compare a sensed voltage generated at a selected sensing location to the variable threshold voltage; output time-based information based on the comparison; and an electrical interface to: map the time-based information to a temperature decay rate, wherein the temperature decay rate depends on a type of fluid in thermal contact with the selected sensing location; and determine a fluid level measurement of the fluid container based on the temperature decay rate. a sensing die including a plurality of sensing locations in thermal contact with a fluid container; an on-die controller to select a sensing location of the plurality of sensing locations to activate and to provide a variable threshold voltage; and a voltage comparator to: compare a sensed voltage generated at a selected sensing location to the variable threshold voltage; output time-based information based on the comparison; and compare a sensed voltage generated at a selected sensing location to the variable threshold voltage; output time-based information based on the comparison; and an electrical interface to: map the time-based information to a temperature decay rate, wherein the temperature decay rate depends on a type of fluid in thermal contact with the selected sensing location; and determine a fluid level measurement of the fluid container based on the temperature decay rate.
A flat chisel comprising: a substantially cylindrical shank having a longitudinal axis; and a working end region comprising a pair of substantially planar ribbed surfaces on opposite sides of the longitudinal axis, each of which extends from a cylindrical surface of the shank and includes elongate ribs (14a, 14b, 14c) protruding therefrom and extending along at least part of the length thereof, each rib having, along the majority of its length, a substantially constant height above the surface from which it protrudes, characterised in that, the substantially planar ribbed surfaces are converging, and each extends directly from a cylindrical surface of the shank and includes a plurality of elongate ribs. a substantially cylindrical shank having a longitudinal axis; and a working end region comprising a pair of substantially planar ribbed surfaces on opposite sides of the longitudinal axis, each of which extends from a cylindrical surface of the shank and includes elongate ribs (14a, 14b, 14c) protruding therefrom and extending along at least part of the length thereof, each rib having, along the majority of its length, a substantially constant height above the surface from which it protrudes, characterised in that, the substantially planar ribbed surfaces are converging, and each extends directly from a cylindrical surface of the shank and includes a plurality of elongate ribs.
A separator for separating a multiphase mixture comprising: a pressure vessel, which defines a separator axis; a support for supporting the pressure vessel for rotation about the separator axis; at least one vane disposed within and coupled for rotation with the pressure vessel; and a flow regulator, wherein the pressure vessel has an inlet, a first phase outlet and a plurality of second phase outlets disposed radially outwardly of the first phase outlet with respect to the separator axis, characterised in that: the separator comprises a sealable casing; the pressure vessel is rotatably mounted within the sealable casing; and in that the flow regulator comprises a plurality of non-return valves disposed respectively at each of the second phase outlets to regulate flow through the second phase outlets, the non-return valves being actuable by regulating a pressure difference between the pressure within the vessel and the pressure within the sealable casing. a pressure vessel, which defines a separator axis; a support for supporting the pressure vessel for rotation about the separator axis; at least one vane disposed within and coupled for rotation with the pressure vessel; and a flow regulator, the separator comprises a sealable casing; the pressure vessel is rotatably mounted within the sealable casing; and in that the flow regulator comprises a plurality of non-return valves disposed respectively at each of the second phase outlets to regulate flow through the second phase outlets, the non-return valves being actuable by regulating a pressure difference between the pressure within the vessel and the pressure within the sealable casing.
A method of receiving a signal in a wireless communication system, the method performed by a user equipment, UE, and comprising: determining a number, N RBG, of resource block groups, RBGs, that are allocated to the UE for a downlink bandwidth, wherein the downlink bandwidth comprises a plurality of resource blocks, and wherein the total number of the plurality of allocated resource blocks is N DL RB; determining a size of each of the N RBG RBGs, wherein said size is defined by the number of resource blocks within an RBG; and receiving the signal through at least one RBG of the N RBG RBGs, wherein based on N DL RB not being a multiple of P, where P is a size of one RBG configured for the downlink bandwidth: i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P. determining a number, N RBG, of resource block groups, RBGs, that are allocated to the UE for a downlink bandwidth, wherein the downlink bandwidth comprises a plurality of resource blocks, and wherein the total number of the plurality of allocated resource blocks is N DL RB; determining a size of each of the N RBG RBGs, wherein said size is defined by the number of resource blocks within an RBG; and receiving the signal through at least one RBG of the N RBG RBGs, wherein based on N DL RB not being a multiple of P, where P is a size of one RBG configured for the downlink bandwidth: i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P. i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P.
An article of footwear comprising an upper and a sole structure secured to the upper, the sole structure having a ground-contacting surface that defines a plurality of macro grooves extending from opposite sides (104, 105) of the footwear and toward a central area of the footwear, at least one of the macro grooves having (a) a depth that is greater at the sides of the footwear than in the central area and (b) a plurality of micro grooves located adjacent to the sides of the footwear and extending toward the central area, each of the macro grooves and the micro grooves being indentations in the ground-contacting surface that extend into the sole structure.
A color conversion film comprising: a substrate film; a color conversion layer provided on the substrate film; and a phase transformation adhesive layer provided on the color conversion layer, wherein the color conversion layer includes an organic fluorescent dye, and the organic fluorescent dye includes any one or more of boron-dipyrromethene (BODIPY)-based, acridine-based, xanthene-based, arylmethane-based, coumarin-based, polycyclic aromatic hydrocarbon-based, polycyclic hetero aromatic-based, perylene-based, pyrrole-based and pyrene-based derivatives, wherein the phase transformation adhesive layer includes an adhesive resin matrix and a phase change material, the adhesive resin matrix is a cation polymerizable adhesive component, a radical curable adhesive component, or a mixture thereof, the phase change material has a solid-liquid phase transition occurring at 30°C to 80°C and is at least one material selected from an organic monomer, a polymer and an inorganic salt hydrate, the organic monomer is at least one selected from a paraffin-based compound, a fatty acid-based compound, an alcohol-based compound and a carbonate-based compound, the polymer is at least one selected from poly(ethylene glycol), poly(propylene oxide and polytetrahydrofuran (PTHF), and the inorganic salt hydrate is at least one selected from LiNO 3 ·3H 2 O, Na 2 SO 4 ·10H 2 O, NaCH 3 COO·3H 2 O, CaBr 2 ·6H 2 O, Na 2 HPO 4 ·12H 2 O, Zn(NO 3) 2 ·nH 2 O, Na 2 S 2 O 3 ·5H 2 O and Cd(NO 3) 2 ·4H 2 O. a substrate film; a color conversion layer provided on the substrate film; and a phase transformation adhesive layer provided on the color conversion layer, wherein the color conversion layer includes an organic fluorescent dye, and the organic fluorescent dye includes any one or more of boron-dipyrromethene (BODIPY)-based, acridine-based, xanthene-based, arylmethane-based, coumarin-based, polycyclic aromatic hydrocarbon-based, polycyclic hetero aromatic-based, perylene-based, pyrrole-based and pyrene-based derivatives, wherein the phase transformation adhesive layer includes an adhesive resin matrix and a phase change material, the adhesive resin matrix is a cation polymerizable adhesive component, a radical curable adhesive component, or a mixture thereof, the phase change material has a solid-liquid phase transition occurring at 30°C to 80°C and is at least one material selected from an organic monomer, a polymer and an inorganic salt hydrate, the organic monomer is at least one selected from a paraffin-based compound, a fatty acid-based compound, an alcohol-based compound and a carbonate-based compound, the polymer is at least one selected from poly(ethylene glycol), poly(propylene oxide and polytetrahydrofuran (PTHF), and the inorganic salt hydrate is at least one selected from LiNO 3 ·3H 2 O, Na 2 SO 4 ·10H 2 O, NaCH 3 COO·3H 2 O, CaBr 2 ·6H 2 O, Na 2 HPO 4 ·12H 2 O, Zn(NO 3) 2 ·nH 2 O, Na 2 S 2 O 3 ·5H 2 O and Cd(NO 3) 2 ·4H 2 O.
A covering slab intended for a pavement system for a pavement, the covering slab comprising: a support frame configured to be positioned on the pavement; a covering element adapted to cover the support frame and comprising a traffic face; and an assembly device intended to assemble the support frame of the covering slab to at least one other support frame of at least one other covering slab, said assembly device comprising at least one fastening element, characterized in that the at least one fastening element is configured to adapt the distance between a bearing face of the assembly device of the covering slab on the pavement and the traffic face of the covering element of the covering slab. a support frame configured to be positioned on the pavement; a covering element adapted to cover the support frame and comprising a traffic face; and an assembly device intended to assemble the support frame of the covering slab to at least one other support frame of at least one other covering slab, said assembly device comprising at least one fastening element, characterized in that the at least one fastening element is configured to adapt the distance between a bearing face of the assembly device of the covering slab on the pavement and the traffic face of the covering element of the covering slab.
An inflatable mattress (10, 11), comprising: an upper layer structure (101, 111) comprising a basic fabric layer (201, 211) and a covering layer (203, 32, 213), the basic fabric layer (201, 211) being woven by a plurality of fabric fibers, wherein the number of weft and warp fibers per 6.452 cm 2 (per square inch) is higher than 100, the covering layer (203, 32, 213) and the basic fabric layer (201, 211) are stuck to each other by glues, wherein the weight of the glues is higher than 20 grams per 0.836 m 2 (per square yard) and lower than 80 grams per 0.836 m 2 (per square yard), the basic fabric layer (201, 211) faces toward the direction of the covering layer (203, 32, 213), pressing and embedding into the covering layer (203, 32, 213) and constituting a first fabric surface laminating material (20, 21); an inflatable middle layer (105, 115), a first surface of the inflatable middle layer (105, 115) being fixedly connected to the upper layer structure (101, 111), and the inflatable middle layer (105, 115) comprising at least one air chamber configured to provide a predetermined shape after expansion during the inflation, and the outer side of the inflatable middle layer (105, 115) comprising a second fabric surface laminating material (20, 21); and a bottom layer structure (102, 112), wherein a second surface of the inflatable middle layer (105, 115) being fixedly connected to the bottom layer structure (102, 112), and the bottom layer structure (102, 112) comprising a third fabric surface laminating material (20, 21). an upper layer structure (101, 111) comprising a basic fabric layer (201, 211) and a covering layer (203, 32, 213), the basic fabric layer (201, 211) being woven by a plurality of fabric fibers, wherein the number of weft and warp fibers per 6.452 cm 2 (per square inch) is higher than 100, the covering layer (203, 32, 213) and the basic fabric layer (201, 211) are stuck to each other by glues, wherein the weight of the glues is higher than 20 grams per 0.836 m 2 (per square yard) and lower than 80 grams per 0.836 m 2 (per square yard), the basic fabric layer (201, 211) faces toward the direction of the covering layer (203, 32, 213), pressing and embedding into the covering layer (203, 32, 213) and constituting a first fabric surface laminating material (20, 21); an inflatable middle layer (105, 115), a first surface of the inflatable middle layer (105, 115) being fixedly connected to the upper layer structure (101, 111), and the inflatable middle layer (105, 115) comprising at least one air chamber configured to provide a predetermined shape after expansion during the inflation, and the outer side of the inflatable middle layer (105, 115) comprising a second fabric surface laminating material (20, 21); and a bottom layer structure (102, 112), wherein a second surface of the inflatable middle layer (105, 115) being fixedly connected to the bottom layer structure (102, 112), and the bottom layer structure (102, 112) comprising a third fabric surface laminating material (20, 21).
A method of effectively adjusting a dimension of a character feature so as to increase the contrast of the character feature when displayed on a display device, in a processing system, the display device having a plurality of pixels each having a plurality of pixel sub-components (632, 633, 634) of different colors, the method comprising: determining that a character would be displayed with a feature having an unacceptably low contrast in the absence of performing a compensation operation on image data that includes the character and in which characters are represented by a foreground color and a background color; oversampling the image data and filtering the resulting samples to generate alpha values that are associated with a set of adjacent pixel sub-components and correspond to the feature of the character, wherein each alpha value is generated from a set of the resulting samples and corresponds to a pixel sub-component of a pixel, wherein the generated alpha values comprise a first alpha value and a second alpha value, the first and second alpha values corresponding to different sub-components (632, 633, 634) of a same pixel and being generated from different sets (626, 627, 629) of the resulting samples; and based on the result of determining, performing the compensation operation, including adjusting at least one of the alpha values to a respective one of said generated alpha values so as to increase the apparent contrast between the foreground color and the background color when the character is displayed on the display device. determining that a character would be displayed with a feature having an unacceptably low contrast in the absence of performing a compensation operation on image data that includes the character and in which characters are represented by a foreground color and a background color; oversampling the image data and filtering the resulting samples to generate alpha values that are associated with a set of adjacent pixel sub-components and correspond to the feature of the character, wherein each alpha value is generated from a set of the resulting samples and corresponds to a pixel sub-component of a pixel, wherein the generated alpha values comprise a first alpha value and a second alpha value, the first and second alpha values corresponding to different sub-components (632, 633, 634) of a same pixel and being generated from different sets (626, 627, 629) of the resulting samples; and based on the result of determining, performing the compensation operation, including adjusting at least one of the alpha values to a respective one of said generated alpha values so as to increase the apparent contrast between the foreground color and the background color when the character is displayed on the display device.
A coated container device comprising: a metal substrate; and one or more coating layers associated with said metal substrate, and wherein said one or more coating layers are derived from the application of one or more aqueous dispersions to at least one surface of said metal substrate, and wherein said one or more aqueous dispersions comprise: one or more base polymers; one or more stabilizing agents; and water; wherein the base polymer comprises a polar polyolefin selected from the group consisting of ethylene-acrylic acid copolymer, ethylene-methacrylic acid copolymer, and combinations thereof, and the stabilizing agent comprises a polar polyolefin selected from the group consisting of ethylene-acrylic acid copolymer, ethylene-methacrylic acid copolymer, and combinations thereof; with the proviso that the base polymer has a lower acid number, measured according to ASTM D-974, than the stabilizing agent. a metal substrate; and one or more coating layers associated with said metal substrate, and wherein said one or more coating layers are derived from the application of one or more aqueous dispersions to at least one surface of said metal substrate, and wherein said one or more aqueous dispersions comprise: one or more base polymers; one or more stabilizing agents; and water; one or more base polymers; one or more stabilizing agents; and water; wherein the base polymer comprises a polar polyolefin selected from the group consisting of ethylene-acrylic acid copolymer, ethylene-methacrylic acid copolymer, and combinations thereof, and the stabilizing agent comprises a polar polyolefin selected from the group consisting of ethylene-acrylic acid copolymer, ethylene-methacrylic acid copolymer, and combinations thereof; with the proviso that the base polymer has a lower acid number, measured according to ASTM D-974, than the stabilizing agent.
A method for improving throughput in an LTE/LTE-A heterogeneous network comprising a macro eNB and a lower powered node using cell range expansion, CRE, said lower powered node including a pico access point, a femto access point, a relay node, or a remote radio head, the method being performed by the macro eNB and/or the lower powered node, said method comprising: forming a plurality of macro sets according to operating characteristics of the macro eNB, wherein a macro set is a partition of the macro eNB being formed of sectors or designated groups of antennas of said macro eNB; forming at least one quasi-almost blank subframe, ABS, wherein a quasi-ABS is an ABS that includes data from the at least one active macro set of the plurality of macro sets and places one or more special restrictions on said data; and partitioning a plurality of subframes to provide for a partition which will be used by the lower powered node for CRE, wherein at least one subframe of the partitioned plurality of subframes includes at least one of the formed quasi-ABSs. forming a plurality of macro sets according to operating characteristics of the macro eNB, wherein a macro set is a partition of the macro eNB being formed of sectors or designated groups of antennas of said macro eNB; forming at least one quasi-almost blank subframe, ABS, wherein a quasi-ABS is an ABS that includes data from the at least one active macro set of the plurality of macro sets and places one or more special restrictions on said data; and partitioning a plurality of subframes to provide for a partition which will be used by the lower powered node for CRE, wherein at least one subframe of the partitioned plurality of subframes includes at least one of the formed quasi-ABSs.