mhurhangee/ep-ind-claims huggingface dataset:
A system for assigning users from a set of candidate users to one of a plurality of sub-bands (s) in a current time slot (t) in a non-orthogonal multiple access communications system, comprising: an assignment processor adapted to select a plurality of candidate pairs of the users, each candidate pair comprising a respective first user ( k 1) and a respective candidate second user ( k 2), for consideration with respect to the selected sub-band, a power calculator adapted to perform a provisional power allocation to each sub-band with regard to each candidate pair, a throughput calculator adapted to determine a respective candidate pair user throughput deviation value reflecting the aggregate of the respective difference between the average throughput across the set of candidate users and the known throughput of each of the first user ( k 1), the candidate second user ( k 2), and each user attributed to a sub-band other than the selected sub-band, the assignment processor being further adapted to assign to the sub-band whichever candidate pair of users corresponds to the smallest respective candidate pair user throughput deviation value. an assignment processor adapted to select a plurality of candidate pairs of the users, each candidate pair comprising a respective first user ( k 1) and a respective candidate second user ( k 2), for consideration with respect to the selected sub-band, a power calculator adapted to perform a provisional power allocation to each sub-band with regard to each candidate pair, a throughput calculator adapted to determine a respective candidate pair user throughput deviation value reflecting the aggregate of the respective difference between the average throughput across the set of candidate users and the known throughput of each of the first user ( k 1), the candidate second user ( k 2), and each user attributed to a sub-band other than the selected sub-band, the assignment processor being further adapted to assign to the sub-band whichever candidate pair of users corresponds to the smallest respective candidate pair user throughput deviation value.
Pull-out guide with a fixable guide rail and a running rail movably mounted on the guide rail, and a brake device comprising a rack and a rotation damper, which is engaged with the rack and which is actuable by movement of the running rail relative to the guide rail, wherein the brake device is arranged between the running rail and the guide rail, characterised in that the brake device is completely enclosed by the running rail and the guide rail.
A method for recovering, from a liquid to be treated containing a fluorinated polymer and a fluorinated emulsifier, the fluorinated emulsifier, which comprises bringing the liquid to be treated and a strongly basic anion exchange resin having an ion exchange capacity of at most 1.0 eq/L and a water content of at least 60 mass% into contact with each other, so that the fluorinated emulsifier is adsorbed on the strongly basic anion exchange resin, wherein the liquid to be treated is a coagulation waste water resulting from an aqueous dispersion containing the fluorinated polymer and the fluorinated emulsifier, obtained by coagulating the fluorinated polymer in the aqueous dispersion to form coagulum and recovering the coagulum, wherein the concentration of the fluorinated emulsifier in the liquid to be treated is from 10 to 5,000 ppm by mass, wherein the mass ratio of the strongly basic anion exchange resin to the liquid to be treated is from 1/100 to 1/5,000, and wherein the coagulation waste water is not subjected to a pretreatment to reduce suspended solids.
A ski binding for fastening a ski boot, comprising: a front retainer; a rear retainer; a tensioning mechanism acting between the front and the rear retainer, whereby the ski boot can be clamped between the front and the rear retainer in such a way as to allow the heel to be lifted freely; a front sole support device arranged at or by the front retainer, the front sole support device being pivotal about the horizontal transverse axis relative to the front retainer; a locking element adapted to fix the front sole support device; the locking element is adapted to lift the front sole support device into contact with the front part of the ski boot such that the front sole support device is fixed between the locking element and the front part of the ski boot; characterised in that the front sole support device can be lifted into contact with the front part of the ski boot by moving the locking element from the rearward position to a forward position; the rearward position of the locking element is behind or parallel to the horizontal transverse axis and in front of the rear end of the midplate; the forward position of the locking element is in front of the horizontal transverse axis. a front retainer; a rear retainer; a tensioning mechanism acting between the front and the rear retainer, whereby the ski boot can be clamped between the front and the rear retainer in such a way as to allow the heel to be lifted freely; a front sole support device arranged at or by the front retainer, the front sole support device being pivotal about the horizontal transverse axis relative to the front retainer; a locking element adapted to fix the front sole support device; the locking element is adapted to lift the front sole support device into contact with the front part of the ski boot such that the front sole support device is fixed between the locking element and the front part of the ski boot; characterised in that the front sole support device can be lifted into contact with the front part of the ski boot by moving the locking element from the rearward position to a forward position; the rearward position of the locking element is behind or parallel to the horizontal transverse axis and in front of the rear end of the midplate; the forward position of the locking element is in front of the horizontal transverse axis.
A synergistic antimicrobial composition comprising: (a) flumetsulam or diclosulam; and (b) zinc pyrithione; wherein a weight ratio of flumetsulam to zinc pyrithione is from 8:1 to 1:7 and a weight ratio of diclosulam to zinc pyrithione is from 15:1 to 1:2.
Method for welding at least one welding sleeve to an electrical connection part, wherein: - the connection part has at least one recess, - the welding sleeve has an opening, in particular a through-hole, with an inner lateral surface, - the welding sleeve is slid onto an ultrasonic welding tool, - the welding sleeve is inserted into the recess and - at least a part of the welding sleeve is welded to the connection part using the ultrasonic welding tool, characterized in that, - the inner lateral surface of the welding sleeve is in contact with the ultrasonic welding tool. - the connection part has at least one recess, - the welding sleeve has an opening, in particular a through-hole, with an inner lateral surface, - the welding sleeve is slid onto an ultrasonic welding tool, - the welding sleeve is inserted into the recess and - at least a part of the welding sleeve is welded to the connection part using the ultrasonic welding tool, characterized in that, - the inner lateral surface of the welding sleeve is in contact with the ultrasonic welding tool.
A water-in-oil emulsion composition comprising: an aqueous phase; an organic solvent; and lecithin, wherein the composition additionally comprises a nonionic surfactant, the nonionic surfactant comprised of a polyoxyethylene derivative of a sorbitan ester, wherein the composition additionally comprises a monomer phase, the monomer phase polymerizable to form a water-in-oil polymer dispersion. an aqueous phase; an organic solvent; and lecithin, wherein the composition additionally comprises a nonionic surfactant, the nonionic surfactant comprised of a polyoxyethylene derivative of a sorbitan ester, wherein the composition additionally comprises a monomer phase, the monomer phase polymerizable to form a water-in-oil polymer dispersion.
A semiconductor device package assembly including a plurality of semiconductor device packages, in which each semiconductor device package comprises: a plurality of contacts; a first housing which is molded of light-colored resin and holds said plurality of contacts; and a second housing which is molded of dark-colored resin and covers a predetermined area of said first housing, and that the semiconductor device package assembly comprises a secondary molding carrier which supports said plurality of semiconductor device packages, wherein said contacts each include a first connection portion to which a semiconductor element is connected, a second connection portion for electrically connecting to a printed board, and a linking portion which links said first connection portion and said second connection portion, wherein said first connection portion is exposed in an accommodation cavity formed in an upper portion of said first housing, for accommodating semiconductor elements, wherein said second connection portion is exposed outward from respective lower portions of said first housing and said second housing, and wherein said linking portion and at least said first housing are integrated by inserted molding, characterized in that each of said plurality of contacts is bent into a predetermined shape such that the semiconductor device packages can be arranged in high density. each semiconductor device package comprises: a plurality of contacts; a first housing which is molded of light-colored resin and holds said plurality of contacts; and a second housing which is molded of dark-colored resin and covers a predetermined area of said first housing, and that the semiconductor device package assembly comprises a secondary molding carrier which supports said plurality of semiconductor device packages, a plurality of contacts; a first housing which is molded of light-colored resin and holds said plurality of contacts; and a second housing which is molded of dark-colored resin and covers a predetermined area of said first housing, and that the semiconductor device package assembly comprises a secondary molding carrier which supports said plurality of semiconductor device packages, wherein said contacts each include a first connection portion to which a semiconductor element is connected, a second connection portion for electrically connecting to a printed board, and a linking portion which links said first connection portion and said second connection portion, wherein said first connection portion is exposed in an accommodation cavity formed in an upper portion of said first housing, for accommodating semiconductor elements, wherein said second connection portion is exposed outward from respective lower portions of said first housing and said second housing, and wherein said linking portion and at least said first housing are integrated by inserted molding, characterized in that each of said plurality of contacts is bent into a predetermined shape such that the semiconductor device packages can be arranged in high density.
A refrigerant system comprising: a compressor; a condenser (24;124); an expansion device; and an evaporator, said compressor delivering a compressed refrigerant to said condenser, refrigerant from said condenser passing through said expansion device, and from said expansion device through said evaporator, and from said evaporator being returned to said compressor; and at least one of said condenser and said evaporator having a plurality of heat transfer tubes (32,36,38,40) which pass a refrigerant downstream in a generally parallel manner; characterised by at least one downstream location (47,49;138,142) within said at least one said condenser and said evaporator being likely to receive separated liquid and vapor phases of refrigerant mixture as the refrigerant flows through the plurality of heat transfer tubes, and a portion of predominantly vapor refrigerant being tapped from an upstream location (23;136,140) and delivered to said downstream location to create more homogenous distribution of said vapor and liquid refrigerant mixture amongst said plurality of said heat transfer tubes. a compressor; a condenser (24;124); an expansion device; and an evaporator, said compressor delivering a compressed refrigerant to said condenser, refrigerant from said condenser passing through said expansion device, and from said expansion device through said evaporator, and from said evaporator being returned to said compressor; and at least one of said condenser and said evaporator having a plurality of heat transfer tubes (32,36,38,40) which pass a refrigerant downstream in a generally parallel manner; characterised by at least one downstream location (47,49;138,142) within said at least one said condenser and said evaporator being likely to receive separated liquid and vapor phases of refrigerant mixture as the refrigerant flows through the plurality of heat transfer tubes, and a portion of predominantly vapor refrigerant being tapped from an upstream location (23;136,140) and delivered to said downstream location to create more homogenous distribution of said vapor and liquid refrigerant mixture amongst said plurality of said heat transfer tubes.
A fuel cell electrode catalyst in which a transition metal element consisting of ruthenium (Ru) and a chalcogen element consisting of sulfur are supported on a conductive carbon support, wherein the amount of sulfur introduced ranges from 20 to 45 mol%, wherein the fuel cell electrode catalyst comprises: - a core portion consisting of crystal particle of the transition metal directly supported on the conductive carbon support and - a shell portion consisting of surface atoms of the transition metal crystal particle and sulfur coordinating to the surface atoms, and the outer circumference of the core portion is being partially covered with the shell portion. - a core portion consisting of crystal particle of the transition metal directly supported on the conductive carbon support and - a shell portion consisting of surface atoms of the transition metal crystal particle and sulfur coordinating to the surface atoms, and
An assembly comprising a machine tool and a workpiece holder associated to a workpiece, the workpiece holder comprising at least one surface facing radially outwards which is configured to bear against a clamping element arranged in the radial direction between the workpiece halder and a chuck, wherein an inner surface of the chuck and the clamping element are at least sectionally of a wedge-shaped cross-section, characterized in that the surface is a substantially planar surface, and that the multi-axis workpiece arm of the machine tool comprises the chuck, which is mounted on or in the multi-axis workpiece arm, especially is mounted rotatably about an rotational axis, by which chuck the workpiece holder of the workpiece is clampable, and in that the inner surface of the chuck and the clamping element are matched to each other such that when displacing the clamping element in relation to the chuck parallel to the rotational axis for clamping and releasing the workpiece holder from the chuck they act on each other, wherein the clamping element is configured to vary a clamping force applied to the workpiece holder during any displacement in relation to the chuck.
An artificial turf comprising a ground fabric made from synthetic ground warp yarns and synthetic weft yarns and a number of plastic blades of grass protruding from the ground fabric in the shape of pile burls which succeed one another in the warp direction and which each comprise two pile legs characterized in that at least three and at most nine weft yarns are inserted between two successive pile legs of a pile burl, and at least three weft yarns between the pile legs of successive pile burls.
A method for culturing vascular smooth muscle cells, which comprises culturing vascular smooth muscle cells in suspension in a medium composition comprising deacylated gellan gum.
A stable modified release formulation comprising (-)-(3aR,4S,7aR)-4-Hydroxy-4m-tolylethynyl-octahydro-indole-1-carboxylic acid methyl ester in free base form as active pharmaceutical ingredient and a modified release agent, such that the active pharmaceutical ingredient is released from the formulation in a controlled fashion over a period of 6 hours, or over a period of 7 hours, so that at least 80% of the active pharmaceutical ingredient has been released at the end of this period.
A device for ablation processing of ophthalmic implantation material formed by aqueous base material, comprising: a laser source configured to generate a pulsed laser beam having a processing wavelength (λ) in the ultraviolet waveband, the processing wavelength (λ) being in a wavelength range of 200nm to 250nm and causing a higher absorbance of the laser beam in the base material of the implantation material than the absorbance of the laser beam in the water of the implantation material, a projection optics configured to radiate the pulsed laser beam onto a surface of the implantation material, and in a processing area with laser pulses of the laser beam which laser pulses have a photoablation-effective combination of pulse duration and intensity, the intensity of the laser pulses being in an intensity range of 10 6 W/cm 2 to 10 11 W/cm 2, to trigger interaction with the implantation material for ablation of the implantation material, and a scanner device (13, 13') configured to perform movement of the processing area for ablation processing according to a processing pattern. a laser source configured to generate a pulsed laser beam having a processing wavelength (λ) in the ultraviolet waveband, the processing wavelength (λ) being in a wavelength range of 200nm to 250nm and causing a higher absorbance of the laser beam in the base material of the implantation material than the absorbance of the laser beam in the water of the implantation material, a projection optics configured to radiate the pulsed laser beam onto a surface of the implantation material, and in a processing area with laser pulses of the laser beam which laser pulses have a photoablation-effective combination of pulse duration and intensity, the intensity of the laser pulses being in an intensity range of 10 6 W/cm 2 to 10 11 W/cm 2, to trigger interaction with the implantation material for ablation of the implantation material, and a scanner device (13, 13') configured to perform movement of the processing area for ablation processing according to a processing pattern.
A non-blocking request processing method, comprising the steps of: receiving a non-blocking request from a requestor; determining an execution completion estimated timestamp indicating the completion time of the non-blocking request according to a determination strategy of the execution completion estimated timestamp; and sending the execution completion estimated timestamp to the requestor, wherein determining of the execution completion estimated timestamp indicating the completion time of the non-blocking request according to a determination strategy of the execution completion estimated timestamp, includes determining the execution completion estimated timestamp of the non-blocking request received according to the categories of non-blocking requests. receiving a non-blocking request from a requestor; determining an execution completion estimated timestamp indicating the completion time of the non-blocking request according to a determination strategy of the execution completion estimated timestamp; and sending the execution completion estimated timestamp to the requestor, wherein determining of the execution completion estimated timestamp indicating the completion time of the non-blocking request according to a determination strategy of the execution completion estimated timestamp, includes determining the execution completion estimated timestamp of the non-blocking request received according to the categories of non-blocking requests.
A substrate holding and locking system for chemical and/or electrolytic surface treatment of a substrate in a process fluid, comprising: - a first element, - a second element, - a magnetic locking unit, and - a reduced pressure holding unit, wherein the first element and the second element are configured to hold the substrate between each other, wherein the magnetic locking unit is configured to lock the first element and the second element with each other, wherein the magnetic locking unit comprises a magnet control and at least a magnet, wherein the magnet is arranged at one of the first element and the second element, wherein the magnet control is configured to control a magnetic force between the first element and the second element, wherein the reduced pressure holding unit comprises a pump for reducing an interior pressure inside the substrate holding and locking system below atmospheric pressure, wherein the pump is arranged at the first element and/or the second element, and an additional external reduced pressure system for reducing an interior pressure inside the substrate holding and locking system below atmospheric pressure is arranged outside the first element and the second element. - a first element, - a second element, - a magnetic locking unit, and - a reduced pressure holding unit, wherein the first element and the second element are configured to hold the substrate between each other, wherein the magnetic locking unit is configured to lock the first element and the second element with each other, wherein the magnetic locking unit comprises a magnet control and at least a magnet, wherein the magnet is arranged at one of the first element and the second element, wherein the magnet control is configured to control a magnetic force between the first element and the second element, wherein the reduced pressure holding unit comprises a pump for reducing an interior pressure inside the substrate holding and locking system below atmospheric pressure, wherein the pump is arranged at the first element and/or the second element, and an additional external reduced pressure system for reducing an interior pressure inside the substrate holding and locking system below atmospheric pressure is arranged outside the first element and the second element.