mhurhangee/ep-ind-claims huggingface dataset:
A bonding device for bonding an irregular-shaped curved cover plate to a flexible screen, characterized in that the irregular-shaped curved cover plate comprises a flat area and a pair of arc hook areas located on both sides of the flat area and smoothly extending from the flat area, the bonding device for bonding the irregular-shaped curved cover plate to the flexible screen comprising: a support body supporting the flexible screen; and a bonding body configured for supporting the flexible screen together with the support body, and configured for pressing the flexible screen, the bonding body having a cylindrical shape, two ends of the bonding body respectively corresponding to the arc hook areas of the irregular-shaped curved cover plate, a cross-sectional shape of the bonding body along an axial direction matching with a cross-sectional shape of the irregular-shaped curved cover plate, the support body being adjacent to a radial end of the bonding body, the bonding body being capable of expanding along the axial direction, to have both ends thereof abutted against the arc hook areas. a support body supporting the flexible screen; and a bonding body configured for supporting the flexible screen together with the support body, and configured for pressing the flexible screen, the bonding body having a cylindrical shape, two ends of the bonding body respectively corresponding to the arc hook areas of the irregular-shaped curved cover plate, a cross-sectional shape of the bonding body along an axial direction matching with a cross-sectional shape of the irregular-shaped curved cover plate, the support body being adjacent to a radial end of the bonding body, the bonding body being capable of expanding along the axial direction, to have both ends thereof abutted against the arc hook areas.
A system comprising: an accumulator configured to collect broad goods material including reinforcement fibers and thermoplastic material; a consolidator in communication with the accumulator and configured to melt and impregnate the thermoplastic material into the reinforcement fibers of the broad goods material at a filament level to form an impregnated fiber material; a chopper in communication with the consolidator and configured to cut the impregnated fiber material into substantially uniform flakes; and a combiner in communication with the chopper and configured to combine the uniform flakes of impregnated fiber material with one or more added compounding materials to create a thermoplastic or thermoset molding compound. an accumulator configured to collect broad goods material including reinforcement fibers and thermoplastic material; a consolidator in communication with the accumulator and configured to melt and impregnate the thermoplastic material into the reinforcement fibers of the broad goods material at a filament level to form an impregnated fiber material; a chopper in communication with the consolidator and configured to cut the impregnated fiber material into substantially uniform flakes; and a combiner in communication with the chopper and configured to combine the uniform flakes of impregnated fiber material with one or more added compounding materials to create a thermoplastic or thermoset molding compound.
Lightweight bleachers, in which - the bleachers comprise rack elements bound to each other front and back, each rack element comprising - a sheet-metal structure, in the profile of which is at least a vertical wall as a flanged structure and a horizontal portion relative to it, and in the horizontal portion a seat portion is provided, to which seats are attached, and a foot space of the next higher row of seats is provided, - the rack elements are attached to pedestal structures at both ends of the rack elements, - the attachment of the rack elements to the pedestal structures takes place to an obliquely downwards running support beam of the pedestal structures, - the upper and/or lower edge of the rack elements includes a flanged edge strip (148, 149) in order to stiffen the structure, - the rack elements comprise a longitudinal flanged strip between the seat portion and the foot space in the horizontal portion of the rack elements profile, characterized in that - at least the rack elements are of aluminium and that the rack elements sheet thickness is 2.5 - 6 mm and preferably 3 - 4.5 mm, - stiffener parts are welded to the under-surface of the rack elements, - the height of the said longitudinal flanged strip formed in the rack elements horizontal portion, is 3 - 9 %, most preferably 5 - 7 % of the length of the horizontal portion. - the bleachers comprise rack elements bound to each other front and back, each rack element comprising - a sheet-metal structure, in the profile of which is at least a vertical wall as a flanged structure and a horizontal portion relative to it, and in the horizontal portion a seat portion is provided, to which seats are attached, and a foot space of the next higher row of seats is provided, - the rack elements are attached to pedestal structures at both ends of the rack elements, - the attachment of the rack elements to the pedestal structures takes place to an obliquely downwards running support beam of the pedestal structures, - the upper and/or lower edge of the rack elements includes a flanged edge strip (148, 149) in order to stiffen the structure, - the rack elements comprise a longitudinal flanged strip between the seat portion and the foot space in the horizontal portion of the rack elements profile, characterized in that - at least the rack elements are of aluminium and that the rack elements sheet thickness is 2.5 - 6 mm and preferably 3 - 4.5 mm, - stiffener parts are welded to the under-surface of the rack elements, - the height of the said longitudinal flanged strip formed in the rack elements horizontal portion, is 3 - 9 %, most preferably 5 - 7 % of the length of the horizontal portion.
A method of manufacturing a cellulose product having a flat or non-flat product shape by a pressure moulding apparatus comprising a forming mould, the forming mould having a forming surface defining said product shape, comprising the steps of: arranging a cellulose blank containing less than 45 weight percent water in said forming mould, wherein said forming mould comprises a flexible fluid impermeable membrane; heating said cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing, said cellulose blank by means of said forming mould with a forming pressure acting on the cellulose blank across said forming surface, said forming pressure being in the range of 1 MPa to 100 MPa, the forming pressure is an isostatic pressure, controlling a fluid to exert an isostatic pressure on said cellulose blank via said fluid impermeable membrane, characterised in that said membrane becomes fixed to said cellulose blank during pressing; and providing a new membrane to the forming mould following said step of pressing. arranging a cellulose blank containing less than 45 weight percent water in said forming mould, wherein said forming mould comprises a flexible fluid impermeable membrane; heating said cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing, said cellulose blank by means of said forming mould with a forming pressure acting on the cellulose blank across said forming surface, said forming pressure being in the range of 1 MPa to 100 MPa, the forming pressure is an isostatic pressure, controlling a fluid to exert an isostatic pressure on said cellulose blank via said fluid impermeable membrane, characterised in that said membrane becomes fixed to said cellulose blank during pressing; and providing a new membrane to the forming mould following said step of pressing.
A metering device accomodating a cartridge, wherein the cartridge includes a support structure configured to hold an array of flat test-strips for fluids in a sheet-like configuration, in which the test strips are laid with a thin side of each strip adjacent to a thin side of a neighboring strip, wherein the cartridge comprises internal mechanisms for (i) ejecting a first test-strip from the cartridge and (ii) moving the array of test-strips through an opening in the cartridge, and wherein a single interface element on the metering device is operable to control the internal mechanisms, the metering device further comprising a toothed gear-rack operably coupling the interface element and the internal mechanisms, wherein the gear-rack is configured to successively engage and disengage from one or more test-strips of the array of test-strips as part of a test-strip ejection process, characterized in that the toothed gear-rack is movably mounted on a partially ramped structure (904A, 904B) such that the gear-rack disengages with the internal mechanisms of the cartridge when the gear-rack is moved to particular positions.
Vehicle retention system for road barriers, which consists of guide barriers which are fitted detachably to one another, wherein each guide barrier has a base body with ground skids (25, 26) and at least one ground guide arrangement and on at least said guide arrangement can be shifted to a limited degree transversely to the road, wherein the guide arrangement comprises a guide plate which has a central section and at the end side respectively an anchor section (31, 32), wherein the central section has an elongated hole running in longitudinal direction of the guide plate, characterised in that each anchor section (31, 32) has an elongated hole directed transversely to the longitudinal direction of the guide plate and the guide plate can be secured to the ground by means of anchoring means guided through the elongated holes in the anchor sections (31, 32) and the base body can be mounted with a first skid on the guide plate, wherein the first skid possesses a horizontal plate in which in the central area two elongated holes (43, 44) arranged in longitudinal direction of the first skid are provided at a distance (a) from one another, and the skid is coupled with the guide plate via connecting means with the incorporation of at least one sliding plate (48, 49), wherein for coupling the first skid to the guide plate respectively a connecting means is guided through the elongated hole in the central section of the guide plate and through the elongated holes (43, 44) in the horizontal plate of the first skid.
A micro device transfer equipment, comprising: a convey platform configured to carry a wafer and move the wafer towards a specific direction, wherein a plurality of micro devices are fabricated on the wafer; characterized by comprising: a transfer device including a plurality of transfer heads and configured to remove the plurality of micro device from the wafer along the specific direction, each transfer head comprising: a base arm; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device. a convey platform configured to carry a wafer and move the wafer towards a specific direction, wherein a plurality of micro devices are fabricated on the wafer; characterized by comprising: a transfer device including a plurality of transfer heads and configured to remove the plurality of micro device from the wafer along the specific direction, each transfer head comprising: a base arm; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device. a base arm; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device.
A production method for an optical laminate, the production method comprising: a thin glass production step of producing a thin glass having a thickness of 100 um or less; and a lamination step of laminating an optical film on one surface, or each of both surfaces, of the thin glass, the thin glass production step and the lamination step being performed in an integrated line, wherein thin glass continuously formed in the thin glass production step is subjected to the lamination step as it is without being taken up, the lamination step comprising applying an adhesive onto the optical film to form an application layer, and bonding the thin glass and the optical film through intermediation of the application layer while thin glass is inserted into a pair of rolls from below, followed by curing the adhesive to form an adhesive layer between the optical film and the thin glass. a thin glass production step of producing a thin glass having a thickness of 100 um or less; and a lamination step of laminating an optical film on one surface, or each of both surfaces, of the thin glass, the thin glass production step and the lamination step being performed in an integrated line, wherein thin glass continuously formed in the thin glass production step is subjected to the lamination step as it is without being taken up, the lamination step comprising applying an adhesive onto the optical film to form an application layer, and bonding the thin glass and the optical film through intermediation of the application layer while thin glass is inserted into a pair of rolls from below, followed by curing the adhesive to form an adhesive layer between the optical film and the thin glass.
A method for printing a decorative pattern onto a paper by means of a digital printing facility that comprises - at least one primer application unit for applying a primer, - at least one printing unit for printing the decorative pattern onto the applied primer, and - at least one dryer (6, 16) for drying at least one part of the paper after the primer and/or decorative pattern has been applied, the method comprising the following steps: a) providing an unprinted base paper, b) applying a primer to the surface of the unprinted base paper, c) printing at least one grid marking and at least one decorative pattern onto the primer-coated base paper, thereby obtaining a printed base paper, d) detecting a grid spacing between at least two points of the grid marking of the printed base paper to determine an actual state of the printed base paper, e) comparing the detected grid spacing of the grid marking of the printed base paper according to the actual state with a digital grid spacing saved as a target state for the printed decorative pattern, f1) amending the saved target grid spacing on the basis of the comparison by creating an amended target grid spacing and thus an amended decorative pattern and/or f2) amending at least one process parameter for controlling the application of the primer and/or the printing of the grid marking and/or the drying on the basis of the comparison carried out, until a predetermined criterion is met, characterised in that the grid marking is a frequency-modulated grid marking that is integrated into the decorative pattern and is macroscopically invisible. - at least one primer application unit for applying a primer, - at least one printing unit for printing the decorative pattern onto the applied primer, and - at least one dryer (6, 16) for drying at least one part of the paper after the primer and/or decorative pattern has been applied, a) providing an unprinted base paper, b) applying a primer to the surface of the unprinted base paper, c) printing at least one grid marking and at least one decorative pattern onto the primer-coated base paper, thereby obtaining a printed base paper, d) detecting a grid spacing between at least two points of the grid marking of the printed base paper to determine an actual state of the printed base paper, e) comparing the detected grid spacing of the grid marking of the printed base paper according to the actual state with a digital grid spacing saved as a target state for the printed decorative pattern, f1) amending the saved target grid spacing on the basis of the comparison by creating an amended target grid spacing and thus an amended decorative pattern and/or f2) amending at least one process parameter for controlling the application of the primer and/or the printing of the grid marking and/or the drying on the basis of the comparison carried out, until a predetermined criterion is met, characterised in that the grid marking is a frequency-modulated grid marking that is integrated into the decorative pattern and is macroscopically invisible.
An apparatus for detachable fastening of a glass pane to a substructure, comprising: a block strip that is subdivided into a block piece to block the glass pane on one of its peripheral sides and a holding piece, and a bonding strip, an outer surface of which is bondable to one side of the glass pane, wherein the holding piece has a projection and the bonding strip engages the projection on the side facing away from the block piece when the glass pane is in the fastened state, characterized by at least one opening passing through both the block piece and the holding piece for fastening means for detachable fastening of the block strip to the substructure while the holding piece lies against the substructure. a block strip that is subdivided into a block piece to block the glass pane on one of its peripheral sides and a holding piece, and a bonding strip, an outer surface of which is bondable to one side of the glass pane, wherein the holding piece has a projection and the bonding strip engages the projection on the side facing away from the block piece when the glass pane is in the fastened state, characterized by at least one opening passing through both the block piece and the holding piece for fastening means for detachable fastening of the block strip to the substructure while the holding piece lies against the substructure.
A communication method applied to a second base station, comprising: receiving, by the second base station, symbol configuration information of a first base station, wherein the symbol configuration information is used to indicate an upstream/downstream symbol configuration in a subframe of the first base station; configuring, by the second base station, a specified symbol in a subframe of the second base station as a blank symbol according to the symbol configuration information of the first base station and symbol configuration information of the second base station, in which the specified symbol is a symbol that is predicted to cause interference on the subframe of the first base station during communication, so as to reconfigure the symbol configuration information of the second base station; and communicating, by the second base station, according to the reconfigured symbol configuration information; characterized in that, the method further comprises: in the case that the symbol configuration information of the first base station does not comprise all symbol configuration information in the subframe of the first base station, determining, by the second base station, a position of a target symbol and configuring, by the second base station, an upstream symbol corresponding to the position of the target symbol in the subframe of the second base station as the blank symbol, wherein the target symbol is a symbol that is not included in the symbol configuration information in the subframe of the first base station. receiving, by the second base station, symbol configuration information of a first base station, wherein the symbol configuration information is used to indicate an upstream/downstream symbol configuration in a subframe of the first base station; configuring, by the second base station, a specified symbol in a subframe of the second base station as a blank symbol according to the symbol configuration information of the first base station and symbol configuration information of the second base station, in which the specified symbol is a symbol that is predicted to cause interference on the subframe of the first base station during communication, so as to reconfigure the symbol configuration information of the second base station; and communicating, by the second base station, according to the reconfigured symbol configuration information; characterized in that, the method further comprises: in the case that the symbol configuration information of the first base station does not comprise all symbol configuration information in the subframe of the first base station, determining, by the second base station, a position of a target symbol and configuring, by the second base station, an upstream symbol corresponding to the position of the target symbol in the subframe of the second base station as the blank symbol, wherein the target symbol is a symbol that is not included in the symbol configuration information in the subframe of the first base station.
A method of producing a purified polypeptide from a solution comprising the polypeptide and an acidic variant of the polypeptide, wherein said acidic variant of the polypeptide results in an inhibition of potency of said polypeptide, the method comprising: (a) contacting the polypeptide with an anion exchange (AIEX) chromatography matrix; and (b) eluting the bound polypeptide from the AIEX chromatography matrix with a linear salt gradient that is from about 150 mM NaCl in Tris/HCl, pH 8.0 to about 300 mM NaCl in Tris/HCl, pH 8.0, from about 175 mM NaCl in Tris/HCl, pH 8.0 to about 275 mM NaCl in Tris/HCl, pH 8.0, or from about 192 mM NaCl in Tris/HCl, pH 8.0 to about 245 mM NaCl in Tris/HCl, pH 8.0, thereby separating said polypeptide from the acidic variant and producing a purified polypeptide; wherein the polypeptide is an immunoconjugate comprising an antibody or antigen binding fragment thereof that binds the cell surface receptor CD22 and comprising a Pseudomonas exotoxin, or variant thereof.
A method for producing an ombré finish for a material having a visual effect by which the color of a stain on said material is graduated from dark at the bottom or side of a surface to a progressively lighter color at the top or center of said surface, said method comprising: applying a stain to a surface of said material in a first darker color concentration toward a first end at said bottom or side of said surface and applying said stain in a second lighter color concentration toward a spaced apart second end at said top or center of said surface; blending said stain from said first end to said second end to create a gradual progressive transition in color concentration from a darker color at said first end to a lighter color at said second end and to eliminate any lines of uneven color; and applying varnish to at least partially seal said surface against further stain application; wherein said material comprises fibrous materials derived from wood, solid woods, hardwoods, veneers, particle board, plywood, or medium-density fiberboard. applying a stain to a surface of said material in a first darker color concentration toward a first end at said bottom or side of said surface and applying said stain in a second lighter color concentration toward a spaced apart second end at said top or center of said surface; blending said stain from said first end to said second end to create a gradual progressive transition in color concentration from a darker color at said first end to a lighter color at said second end and to eliminate any lines of uneven color; and applying varnish to at least partially seal said surface against further stain application; wherein said material comprises fibrous materials derived from wood, solid woods, hardwoods, veneers, particle board, plywood, or medium-density fiberboard.