mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing bacteria in a precipitated calcium carbonate (CaCO 3) slurry, the method comprising: adding water to calcium oxide (CaO) to form Ca 2; treating the Ca 2 with CO 2 gas to form a slurry comprising precipitated CaCO 3; neutralizing the slurry; and exposing the slurry that was neutralized to ozone in an amount sufficient to reduce bacteria in the precipitated calcium carbonate slurry, wherein a solid concentration of precipitated CaCO 3 in the slurry ranges from 12% w/w to 40% w/w solids. adding water to calcium oxide (CaO) to form Ca 2; treating the Ca 2 with CO 2 gas to form a slurry comprising precipitated CaCO 3; neutralizing the slurry; and exposing the slurry that was neutralized to ozone in an amount sufficient to reduce bacteria in the precipitated calcium carbonate slurry, wherein a solid concentration of precipitated CaCO 3 in the slurry ranges from 12% w/w to 40% w/w solids.
Vehicle of the motor vehicle type, comprising a ventilation device arranged in a structural surround (1, 102) of at least one glazed element, the vehicle comprising a bodyshell structure to which the structural surround (1, 102) is attached, the bodyshell structure comprising roof side rails extending in the continuation of the windscreen side uprights, said roof side rails being mutually connected to one another via a windscreen top rail and via a rear parcel shelf, the structural surround being of hollow cross section, characterized in that the structural surround is in communication with the ventilation device so that air blown near the glazed element is able to circulate through at least one air distribution opening produced on the structural surround, and in that the structural surround (1, 102) has a calibrated cross section in order to ensure resistance to the deformation of the vehicle and comprises longitudinal portions, each produced in a single piece, which are mutually connected to one another by at least transverse beams, for example by at least two crossmembers.
A mass accelerator for discharging projectiles comprising: (a) a plurality of independent structures (40, 42, 44) each having an arcuate surface (41, 43, 45) for supporting projectiles movable relative thereto, said structures being positioned one above the other from a lowermost structure to an uppermost structure, with one or more intermediate structures (42; 42A, 42B) therebetween, each said structure (40, 42, 44) lying on an axis and being movable gyrationally such that said arcuate surface moves along a local radius of curvature when said projectile is located thereon to impart acceleration to the projectile; (b) a means (56, 83, 83A, 83B, 86, 88-90) for directing each projectile to the next adjacent arcuate surface (41, 43, 45) upon reaching an exit portal at the upper area of said arcuate surface (41, 43, 45) for that structure(40, 42, 44), said directing means forming either (i) a delay path (12, 86, 88-90) or (ii) a gap (56, 83, 83A, 83B) to be spanned in the movement of said projectiles from one arcuate surface (41, 43, 45) to an adjacent arcuate surface; and (c) at least one discharge outlet on the uppermost of said arcuate surface structures (40, 42, 44). (a) a plurality of independent structures (40, 42, 44) each having an arcuate surface (41, 43, 45) for supporting projectiles movable relative thereto, said structures being positioned one above the other from a lowermost structure to an uppermost structure, with one or more intermediate structures (42; 42A, 42B) therebetween, each said structure (40, 42, 44) lying on an axis and being movable gyrationally such that said arcuate surface moves along a local radius of curvature when said projectile is located thereon to impart acceleration to the projectile; (b) a means (56, 83, 83A, 83B, 86, 88-90) for directing each projectile to the next adjacent arcuate surface (41, 43, 45) upon reaching an exit portal at the upper area of said arcuate surface (41, 43, 45) for that structure(40, 42, 44), said directing means forming either (i) a delay path (12, 86, 88-90) or (ii) a gap (56, 83, 83A, 83B) to be spanned in the movement of said projectiles from one arcuate surface (41, 43, 45) to an adjacent arcuate surface; and (c) at least one discharge outlet on the uppermost of said arcuate surface structures (40, 42, 44).
A device comprising circuitry configured to: receive a first input from one or more touch sensors included in a display panel; determine, based on the first input from the one or more touch sensors, whether a first touch operation is performed within a predetermined portion of the display panel; control, when it is determined that the first touch operation was performed within the predetermined portion of the display panel, the display panel to display a screen pad and a pointer within an interface on the display panel; determine, based on a second input received from the one or more touch sensors, whether a second touch operation is performed within a portion of the display panel corresponding to the displayed screen pad; control, when the second touch operation is performed within the screen pad and based on features of the second touch operation, at least one of a movement of the pointer and an operation of the device; control the at least one of the movement of the pointer and the operation of the device based on a time duration of the second touch operation characterized in that the circuitry is further configured to control the display panel such that a color of the pointer gradually changes from a first color to a second color as the time duration of the second touch operation increases. receive a first input from one or more touch sensors included in a display panel; determine, based on the first input from the one or more touch sensors, whether a first touch operation is performed within a predetermined portion of the display panel; control, when it is determined that the first touch operation was performed within the predetermined portion of the display panel, the display panel to display a screen pad and a pointer within an interface on the display panel; determine, based on a second input received from the one or more touch sensors, whether a second touch operation is performed within a portion of the display panel corresponding to the displayed screen pad; control, when the second touch operation is performed within the screen pad and based on features of the second touch operation, at least one of a movement of the pointer and an operation of the device; control the at least one of the movement of the pointer and the operation of the device based on a time duration of the second touch operation characterized in that the circuitry is further configured to control the display panel such that a color of the pointer gradually changes from a first color to a second color as the time duration of the second touch operation increases.
An information processor for obtaining a digital content file through a network and storing it into a predetermined storage device, comprising: resume data generation means for generating a resume data including at least information indicating the progress of obtaining said digital content file to store the generated resume data in a recording area; and download control means adapted to create said recording area of a size that is equal to the data size of said digital content file, in said storage device, further adapted to obtain a series of divided data blocks in a predetermined order, the divided data blocks being obtained by breaking up said digital content file, further adapted to store the divided data blocks in order from the earliest to the latest obtained, in said recording area along with said resume data, said resume data stored in said recording area being updated by said resume data generation means every time when a predetermined number of said divided data blocks are obtained, said download control means further adapted to move the position where said resume data is stored, within said recording area, depending on the position where the obtained one of the divided data blocks is stored, and further adapted to remove the resume data from said recording area when the last one of the divided data blocks is obtained. resume data generation means for generating a resume data including at least information indicating the progress of obtaining said digital content file to store the generated resume data in a recording area; and download control means adapted to create said recording area of a size that is equal to the data size of said digital content file, in said storage device, further adapted to obtain a series of divided data blocks in a predetermined order, the divided data blocks being obtained by breaking up said digital content file, further adapted to store the divided data blocks in order from the earliest to the latest obtained, in said recording area along with said resume data, said resume data stored in said recording area being updated by said resume data generation means every time when a predetermined number of said divided data blocks are obtained, said download control means further adapted to move the position where said resume data is stored, within said recording area, depending on the position where the obtained one of the divided data blocks is stored, and further adapted to remove the resume data from said recording area when the last one of the divided data blocks is obtained.
A steering control device that controls a steering system that includes an actuator to control operation of the actuator, the steering control device comprising: an angular speed control circuit that performs feedback control on the actuator in the case where a steering angle (θh) of the steering wheel reaches a steering limit of the steering angle (θh) and the steering wheel is moved back from the steering limit, the feedback control being performed such that an angular speed (ωh) of a rotational angle of a rotary shaft that is convertible into the steering angle (θh) coincides with a target angular speed (ωh*) that is a target value for the angular speed (ωh) and that is set in accordance with the rotational angle, the angular speed (ωh) being computed on the basis of the rotational angle, characterized in that the actuator generates torque to be applied to a steering wheel, and the steering control device further comprises a reaction force control circuit that controls the actuator so as to make it more difficult to steer the steering wheel forth toward the steering limit as the steering angle (θh) becomes closer to the steering limit. an angular speed control circuit that performs feedback control on the actuator in the case where a steering angle (θh) of the steering wheel reaches a steering limit of the steering angle (θh) and the steering wheel is moved back from the steering limit, the feedback control being performed such that an angular speed (ωh) of a rotational angle of a rotary shaft that is convertible into the steering angle (θh) coincides with a target angular speed (ωh*) that is a target value for the angular speed (ωh) and that is set in accordance with the rotational angle, the angular speed (ωh) being computed on the basis of the rotational angle, characterized in that the actuator generates torque to be applied to a steering wheel, and the steering control device further comprises a reaction force control circuit that controls the actuator so as to make it more difficult to steer the steering wheel forth toward the steering limit as the steering angle (θh) becomes closer to the steering limit.
Support for a semiconductor structure or a surface or bulk acoustic wave type device comprising: - a base substrate; - a first silicon dioxide insulating layer positioned on the base substrate and having a thickness greater than 20 nm; - a charge trapping layer having a resistivity higher than 1000 ohm.cm and a thickness greater than 5 microns positioned on the first insulating layer. - a base substrate; - a first silicon dioxide insulating layer positioned on the base substrate and having a thickness greater than 20 nm; - a charge trapping layer having a resistivity higher than 1000 ohm.cm and a thickness greater than 5 microns positioned on the first insulating layer.
An enamel paste comprising: 30 to 40% by weight of a bismuth silicate glass frit; 20 to 30% by weight of a zinc silicate glass frit; 15 to 25% by weight of a pigment; and 10 to 20% by weight of an organic carrier medium, wherein the bismuth silicate glass frit comprises at least silicon, bismuth, boron, and lithium, and is free of lead and cadmium, and wherein the bismuth silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 Bi 2 O 3 15 - 25 B 2 O 3 10 - 20 Li 2 O 2 - 10 Al 2 O 3 0 - 5 ZrO 2 0 - 5 K 2 O 0 - 1 MgO 0 - 1 CaO 0 - 1; wherein the zinc silicate glass frit comprises at least silicon, zinc, sulphur, and lithium, and is free of lead, cadmium, and bismuth, and wherein the zinc silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 ZnO 20 - 30 Li 2 O 1 - 10 S 1 - 10 B 2 O 3 0 - 10 Na 2 O 0 - 10 F 0 - 10 MnO 0 - 10 CaO 0 - 1 Fe 2 O 3 0 - 1 MgO 0 - 1; wherein the glass frits and the pigment in the enamel paste each have a D90 particle size distribution of less than 15 micrometres, and wherein the enamel paste has a viscosity between 5 and 150 Pa.s -1 at a shear rate of 100 s -1. 30 to 40% by weight of a bismuth silicate glass frit; 20 to 30% by weight of a zinc silicate glass frit; 15 to 25% by weight of a pigment; and 10 to 20% by weight of an organic carrier medium, wherein the bismuth silicate glass frit comprises at least silicon, bismuth, boron, and lithium, and is free of lead and cadmium, and wherein the bismuth silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 Bi 2 O 3 15 - 25 B 2 O 3 10 - 20 Li 2 O 2 - 10 Al 2 O 3 0 - 5 ZrO 2 0 - 5 K 2 O 0 - 1 MgO 0 - 1 CaO 0 - 1; wherein the zinc silicate glass frit comprises at least silicon, zinc, sulphur, and lithium, and is free of lead, cadmium, and bismuth, and wherein the zinc silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 ZnO 20 - 30 Li 2 O 1 - 10 S 1 - 10 B 2 O 3 0 - 10 Na 2 O 0 - 10 F 0 - 10 MnO 0 - 10 CaO 0 - 1 Fe 2 O 3 0 - 1 MgO 0 - 1; wherein the glass frits and the pigment in the enamel paste each have a D90 particle size distribution of less than 15 micrometres, and wherein the enamel paste has a viscosity between 5 and 150 Pa.s -1 at a shear rate of 100 s -1.
A binder composition which is free from Portland cement, and which comprises: (a) ground granulated blast furnace slag (GGBS) in an amount of 30 to 60 wt.% by weight of binder composition on a dry solids basis, (b) basic oxygen slag in an amount of 30 to 60 wt.% by weight of binder composition on a dry solids basis, and (c) an alkaline inorganic waste material selected from by-pass dust, cement kiln dust, and mixtures thereof in an amount of 3 to 12 wt.% by weight of binder composition on a dry solids basis. (a) ground granulated blast furnace slag (GGBS) in an amount of 30 to 60 wt.% by weight of binder composition on a dry solids basis, (b) basic oxygen slag in an amount of 30 to 60 wt.% by weight of binder composition on a dry solids basis, and (c) an alkaline inorganic waste material selected from by-pass dust, cement kiln dust, and mixtures thereof in an amount of 3 to 12 wt.% by weight of binder composition on a dry solids basis.
A glide plate assembly for insertion between at least two conveyor rollers (70, 72) of a conveyor having a pair of spaced apart opposing longitudinal members each one including at least one roller attachment bracket, said glide plate assembly comprising: a longitudinal lateral cross member including side walls terminating in an inwardly curved lip; a support clip attaching to a distal end of said lateral cross member for cooperatively engaging said at least one roller attachment bracket; and a longitudinal glide plate comprising a main body including at least one pair of spaced apart opposing flanges projecting downward from said main body, each of said flanges including a shoulder for cooperatively engaging said curved lip, said glide plate including a front tab and a rear tab of a selected length, characterised in that said glide plate front tab includes a curved portion extending below an upper surface of said glide plate member main body with said front tab having a terminal front end extending upward to a selected position spaced apart from an outer surface of an adjacent conveyor roller providing a spring and flexing capability for the transfer of packages or parcels there over. a longitudinal lateral cross member including side walls terminating in an inwardly curved lip; a support clip attaching to a distal end of said lateral cross member for cooperatively engaging said at least one roller attachment bracket; and a longitudinal glide plate comprising a main body including at least one pair of spaced apart opposing flanges projecting downward from said main body, each of said flanges including a shoulder for cooperatively engaging said curved lip, said glide plate including a front tab and a rear tab of a selected length, characterised in that said glide plate front tab includes a curved portion extending below an upper surface of said glide plate member main body with said front tab having a terminal front end extending upward to a selected position spaced apart from an outer surface of an adjacent conveyor roller providing a spring and flexing capability for the transfer of packages or parcels there over.
A nozzle manufacturing method for welding a nozzle to a parent material, the nozzle welding method comprising: a forming step of forming a formed portion including a surface to be inspected so that the portion projects from a front surface of the parent material; a first inspection step of inspecting the surface to be inspected of the formed portion; a base processing step of processing the formed portion into a base of the nozzle; a base material welding step of welding the base and a nozzle base material (22, 31) to be a base material of the nozzle to form a nozzle welded portion; and a second inspection step of inspecting the nozzle welded portion, wherein the forming step is a forging forming step of forging the parent material and the formed portion in an integral manner. a forming step of forming a formed portion including a surface to be inspected so that the portion projects from a front surface of the parent material; a first inspection step of inspecting the surface to be inspected of the formed portion; a base processing step of processing the formed portion into a base of the nozzle; a base material welding step of welding the base and a nozzle base material (22, 31) to be a base material of the nozzle to form a nozzle welded portion; and a second inspection step of inspecting the nozzle welded portion, wherein the forming step is a forging forming step of forging the parent material and the formed portion in an integral manner.
A hernia repair system, comprising: a surgical mesh (204; 304; 404; 504; 604) including at least one electrode (205; 305; 405; 505; 605) embedded therein; at least one electrosurgical instrument (99; 106) configured to position the surgical mesh (204; 304; 404; 504; 604) adjacent tissue in an underlying tissue site; and characterised in that the at least one electrosurgical instrument (99; 106) is configured to selectively apply an effective amount of pressure and electrosurgical energy to the at least one electrode (205; 305; 405; 505; 605) embedded within the surgical mesh (204; 304; 404; 504; 604) such that upon application of electrosurgical energy and pressure, the surgical mesh (204; 304; 404; 504; 604) seals to one side of the tissue at the underlying tissue site. a surgical mesh (204; 304; 404; 504; 604) including at least one electrode (205; 305; 405; 505; 605) embedded therein; at least one electrosurgical instrument (99; 106) configured to position the surgical mesh (204; 304; 404; 504; 604) adjacent tissue in an underlying tissue site; and characterised in that the at least one electrosurgical instrument (99; 106) is configured to selectively apply an effective amount of pressure and electrosurgical energy to the at least one electrode (205; 305; 405; 505; 605) embedded within the surgical mesh (204; 304; 404; 504; 604) such that upon application of electrosurgical energy and pressure, the surgical mesh (204; 304; 404; 504; 604) seals to one side of the tissue at the underlying tissue site.
Feed-mixing wagon for mixing and unloading animal feed, and comprising: - a frame with a drive, - a container which is arranged on the frame and is open at the top, with a bottom and a continuous wall arranged thereon and a closable feed-unload opening in the wall, - at least one feed auger which is arranged in the container and is rotatably drivable in a direction of rotation about a substantially vertical axis of rotation, which feed auger is arranged to at least mix animal feed which has been introduced into the container and comprising an auger shaft and an auger body which is arranged around it in a spiral and has, viewed in the direction of rotation, a bottom front edge which is situated closest to the bottom during rotation of the feed auger and extends in a substantially horizontal plane, wherein a greatest chord of the bottom front edge extends through the auger body and wherein a line through said chord extends, viewed in the direction of rotation, in front of the axis of rotation, wherein the bottom front edge is continuously curved, in particular with a local radius of curvature directed radially towards the auger body. - a frame with a drive, - a container which is arranged on the frame and is open at the top, with a bottom and a continuous wall arranged thereon and a closable feed-unload opening in the wall, - at least one feed auger which is arranged in the container and is rotatably drivable in a direction of rotation about a substantially vertical axis of rotation, which feed auger is arranged to at least mix animal feed which has been introduced into the container and comprising an auger shaft and an auger body which is arranged around it in a spiral and has, viewed in the direction of rotation, a bottom front edge which is situated closest to the bottom during rotation of the feed auger and extends in a substantially horizontal plane,
A stacking apparatus for stacking one chip assembly including at least one first chip on another chip assembly including at least one second chip so that an electrical conduction between the at least one first chip and the at least one second chip is achieved, each of the chip assemblies having marks, the apparatus comprising: a control unit configured to control a movement of the one chip assembly relative to the other chip assembly, the control unit is configured to: obtain first position information of each of a plurality of marks selected from the marks provided on one chip assembly and second position information of each of a plurality of marks selected from the marks provided on the other chip assembly; characterised in that the control unit is further configured to: calculate a first misalignment of the one chip assembly and a second misalignment of the other chip assembly based on misalignment of the plurality of marks provided on the one chip assembly with regard to design data and misalignment of the plurality of marks provided on the other chip assembly with regard to design data; and control the movement of the one chip assembly relative to the other chip assembly so that a difference between the first and second misalignments achieves a minimum as a whole. calculate a first misalignment of the one chip assembly and a second misalignment of the other chip assembly based on misalignment of the plurality of marks provided on the one chip assembly with regard to design data and misalignment of the plurality of marks provided on the other chip assembly with regard to design data; and control the movement of the one chip assembly relative to the other chip assembly so that a difference between the first and second misalignments achieves a minimum as a whole.