mhurhangee/ep-ind-claims huggingface dataset:
A blow mold unit comprising: a blow mold including first and second blow cavity split molds (210, 211) to be clamped by bringing parting surfaces thereof into contact with each other, and a plurality of raised bottom molds that define a plurality of raised bottom shapes for a plurality of cavities defined by the first and second blow cavity split molds (210, 211); first and second pressure receiving plates (220, 221) that receive mold clamping pressure by bringing parting surfaces thereof into contact with each other; a first fixing plate to which the first blow cavity split mold and the first pressure receiving plate are fixed; a second fixing plate to which the second blow cavity split mold and the second pressure receiving plate are fixed; a third fixing plate interposed between the first and second fixing plates (230, 231) and to which the plurality of raised bottom molds are fixed at a first surface thereof; at least one shaft portion extending vertically from a second surface of the third fixing plate opposed to the first surface; an elevation guide block fixed to one of the first and second fixing plates (230, 231) and elevation guiding the shaft portion; an elevated member characterized in that said elevated member is extending vertically from the second surface of the third fixing plate, and in that the blow mold unit further comprises a biasing member that biases the shaft portion with respect to the elevation guide block to release the plurality of raised bottom molds from the first and second blow cavity split molds (210, 211). a blow mold including first and second blow cavity split molds (210, 211) to be clamped by bringing parting surfaces thereof into contact with each other, and a plurality of raised bottom molds that define a plurality of raised bottom shapes for a plurality of cavities defined by the first and second blow cavity split molds (210, 211); first and second pressure receiving plates (220, 221) that receive mold clamping pressure by bringing parting surfaces thereof into contact with each other; a first fixing plate to which the first blow cavity split mold and the first pressure receiving plate are fixed; a second fixing plate to which the second blow cavity split mold and the second pressure receiving plate are fixed; a third fixing plate interposed between the first and second fixing plates (230, 231) and to which the plurality of raised bottom molds are fixed at a first surface thereof; at least one shaft portion extending vertically from a second surface of the third fixing plate opposed to the first surface; an elevation guide block fixed to one of the first and second fixing plates (230, 231) and elevation guiding the shaft portion; an elevated member characterized in that said elevated member is extending vertically from the second surface of the third fixing plate, and in that the blow mold unit further comprises a biasing member that biases the shaft portion with respect to the elevation guide block to release the plurality of raised bottom molds from the first and second blow cavity split molds (210, 211).
Two- or multi-part mould which has a mould cavity and is intended for the production of mouldings from viscous plastics composition where, by way of inlet aperture, the viscous plastics composition can be injected into the mould cavity and, in a plurality of the melt streams, becomes distributed to fill the mould cavity, and also forms weld lines on encountering the plastics composition, characterized in that along the flowpaths of the plastics composition the surface of the shaped areas forming the mould cavity is present one or more partial regions of greater surface roughness and of lesser surface roughness than regions adjacent thereto on the surface of the shaped areas forming the mould cavity where, when the plastics composition flows across the regions of greater surface roughness and of lesser surface roughness, the flow paths of the plastics composition can be influenced and directed.
A button fastener, comprising a penetrating part and a receiving part, wherein the penetrating part is substantially u-shaped by means of having a transversal base with two substantially parallel legs, each of said legs having a pointed end and a retaining member adjacent said pointed end arranged to interlock with the receiving part, and wherein said receiving part is substantially u-shaped with at least one transversal base and at a position at a distance from said transversal base an interlocking receiving means arranged to interlock with said penetrating part, characterized in that at least one of said parts (10, 20) is arranged with a gripping member (19, 29) which is detachable by means of a line of rupture (17, 27), wherein said gripping member (19, 29) has a transversal extension that is bigger than the length of said transversal base (16, 25).
A head tracking system comprising: a sensing device for measuring a head movement to provide a measure representing a head movement, and a processing circuit for deriving a rotation angle of a head of a user with respect to a reference direction from the measure, wherein the reference direction used in the processing circuit is dependent on a movement of a user, the processing circuit being further configured to determine the reference direction as an average of the rotation angle of the head of the user; and characterized in that the averaging is adaptive for adapting the reference direction and adapts to larger re-directions faster than for small re-directions. a sensing device for measuring a head movement to provide a measure representing a head movement, and a processing circuit for deriving a rotation angle of a head of a user with respect to a reference direction from the measure, wherein the reference direction used in the processing circuit is dependent on a movement of a user, the processing circuit being further configured to determine the reference direction as an average of the rotation angle of the head of the user; and characterized in that the averaging is adaptive for adapting the reference direction and adapts to larger re-directions faster than for small re-directions.
A logistics installation for sorting articles, the installation including a looped conveyor capable of directing the articles into sorting outlet zones (ZS, ZS-1, ZS-2, ZS-3, ZS-4, ZS-5, ZS-6) according to sorting plan that associates the outlet zones with the articles, the looped conveyor having injection zones (ZI, ZI-1, ZI-2, ZI-3, ZI-4, ZI-5, ZI-6), each of which is arranged to inject the articles onto the conveyor and which alternate with the outlet zones, said logistics installation being characterized in that it further includes: • a certain number P of pre-sorting devices (PT1, PT2) designed for pre-sorting the articles to be sorted according to said sorting plan, P being an integer greater than or equal to two; and • conveyor lines for conveying the pre-sorted articles from the pre-sorting devices to the injection zones, the conveyor lines being arranged so that each injection zone is connected to one pre-sorting device only and each pre-sorting device is connected to a plurality of injection zones in a configuration in which each pre-sorting device is connected to one in every P injection zones considered sequentially along the conveyor in a given direction. • a certain number P of pre-sorting devices (PT1, PT2) designed for pre-sorting the articles to be sorted according to said sorting plan, P being an integer greater than or equal to two; and • conveyor lines for conveying the pre-sorted articles from the pre-sorting devices to the injection zones, the conveyor lines being arranged so that each injection zone is connected to one pre-sorting device only and each pre-sorting device is connected to a plurality of injection zones in a configuration in which each pre-sorting device is connected to one in every P injection zones considered sequentially along the conveyor in a given direction.
A crystalline 20,23-dipiperidinyl-5-O-mycaminosyl-tylonolide form having at least one of the following characteristics: an FT-Raman spectrum comprising an absorption band at one or more frequencies selected from the group consisting of about 2943, about 2917, about 1627, about 1590, about 1733, about 1669, about 1193, about 1094, and about 981 cm -1; a powder X-ray diffraction spectrum comprising at least one peak selected from the group consisting of 5.6 (± 0.2) and 6.1 (± 0.2) degrees 2Θ; or an attenuated total reflection infrared spectrum comprising an absorption band at one or more frequencies selected from the group consisting of about 2931, about 1732, about 1667, about 1590, about 1453, about 1165, about 1081, about 1057, about 1046, about 1005, about 981, about 834, and about 756 cm -1. an FT-Raman spectrum comprising an absorption band at one or more frequencies selected from the group consisting of about 2943, about 2917, about 1627, about 1590, about 1733, about 1669, about 1193, about 1094, and about 981 cm -1; a powder X-ray diffraction spectrum comprising at least one peak selected from the group consisting of 5.6 (± 0.2) and 6.1 (± 0.2) degrees 2Θ; or an attenuated total reflection infrared spectrum comprising an absorption band at one or more frequencies selected from the group consisting of about 2931, about 1732, about 1667, about 1590, about 1453, about 1165, about 1081, about 1057, about 1046, about 1005, about 981, about 834, and about 756 cm -1.
A method of producing II-VI or III-V semiconductor nanoparticles comprising effecting conversion of a II-VI or III-V semiconductor nanoparticle precursor composition to the material of the II-VI or III-V semiconductor nanoparticles, said precursor composition comprising a first precursor species containing a first ion to be incorporated into the growing II-VI or III-V semiconductor nanoparticles and a separate second precursor species containing a second ion to be incorporated into the growing II-VI or III-V semiconductor nanoparticles, wherein said conversion is effected in the presence of a molecular cluster compound of the following formula: 4 [E 4 M 10 16] where M=Zn, Cd or Hg; E=S, Se or Te; X = Me 3 NH +, Li + or Et 3 NH +, and R=Me, Et or Ph under conditions permitting seeding and growth of the II-VI or III-V semiconductor nanoparticles, the molecular cluster compound and II-VI or III-V semiconductor nanoparticle precursor composition being dissolved in a solvent at a first temperature in the range 50 to 100°C to form a solution and the temperature of the solution then increased to a second temperature in the range 120 to 280°C which is sufficient to initiate seeding and growth of the II-VI or III-V semiconductor nanoparticles on the molecular clusters of said compound.
Process for making nanostructures (104; 404; 604; 704; 804) on a support, the process comprising the following steps: - supply of a support comprising a surface layer (101; 401; 601; 701; 801) on one of its faces; - covering of the surface layer by a catalyst layer (102; 202; 402; 602; 702; 802) structured according to a pattern exposing areas of the surface layer covered by the catalyst and areas of the surface layer not covered by the catalyst, the surface layer being a barrier layer to diffusion of the catalyst towards the support; - etching of the thickness of the surface layer (101; 401; 601; 701; 801) in all the areas not covered by the catalyst layer by using the structured catalyst layer as an etching mask, until the surface layer disappears in the areas not covered by the catalyst layer; - selective growth of nanostructures (104; 404; 604; 704; 804) on the areas of the surface layer covered by the catalyst. - supply of a support comprising a surface layer (101; 401; 601; 701; 801) on one of its faces; - covering of the surface layer by a catalyst layer (102; 202; 402; 602; 702; 802) structured according to a pattern exposing areas of the surface layer covered by the catalyst and areas of the surface layer not covered by the catalyst, the surface layer being a barrier layer to diffusion of the catalyst towards the support; - etching of the thickness of the surface layer (101; 401; 601; 701; 801) in all the areas not covered by the catalyst layer by using the structured catalyst layer as an etching mask, until the surface layer disappears in the areas not covered by the catalyst layer; - selective growth of nanostructures (104; 404; 604; 704; 804) on the areas of the surface layer covered by the catalyst.
A filter cartridge, in particular for a gravity-driven system for filtering drinking water, comprising an upper part comprising at least one inlet opening and a lower part comprising at least one outlet opening, and which is filled with a filter granulate, characterized in that the upper part has at least one ventilation opening, which is arranged below a closed jacket surface of an insert arranged in the filter cartridge, wherein the insert consists of a tubular section, which is closed on the top by means of a filter structure for retaining the filter granulate, and wherein the upper part is closed above the at least one ventilation opening.
A method performed by a radio node comprising an enhanced receiver, the method comprising: receiving an indicator from a radio network node; receiving a first target channel from a target cell, the first target channel comprising a first channel type; receiving a first interfering channel when receiving the first target channel, the first interfering channel comprising the first channel type and received from a first interfering cell; determining first information based on receiving the first target channel and the first interfering channel; receiving a second target channel from the target cell, the second target channel comprising a second channel type; receiving a second interfering channel from a second interfering cell, the second interfering channel comprising the second channel type; determining second information based on receiving the second target channel and the second interfering channel; and reducing interference associated with at least one of the first interfering cell and the second interfering cell based on at least one of the first information and the second information, characterized by: based on said indicator, receiving the second channel type using one or more gaps impacting receipt of the second interfering channel relative to receipt of the second target channel, and receiving the first channel type without using gaps impacting receipt of the first interfering channel relative to receipt of the first target channel. receiving an indicator from a radio network node; receiving a first target channel from a target cell, the first target channel comprising a first channel type; receiving a first interfering channel when receiving the first target channel, the first interfering channel comprising the first channel type and received from a first interfering cell; determining first information based on receiving the first target channel and the first interfering channel; receiving a second target channel from the target cell, the second target channel comprising a second channel type; receiving a second interfering channel from a second interfering cell, the second interfering channel comprising the second channel type; determining second information based on receiving the second target channel and the second interfering channel; and reducing interference associated with at least one of the first interfering cell and the second interfering cell based on at least one of the first information and the second information, characterized by: based on said indicator, receiving the second channel type using one or more gaps impacting receipt of the second interfering channel relative to receipt of the second target channel, and receiving the first channel type without using gaps impacting receipt of the first interfering channel relative to receipt of the first target channel. based on said indicator, receiving the second channel type using one or more gaps impacting receipt of the second interfering channel relative to receipt of the second target channel, and receiving the first channel type without using gaps impacting receipt of the first interfering channel relative to receipt of the first target channel.
A method performed at an optical receiver (102,300), the method comprising: receiving an optical signal over an optical communications channel established between the optical receiver and an optical transmitter (102,200), wherein the received optical signal comprises a degraded version of a modulated optical signal generated at the optical transmitter, and wherein the received optical signal represents N information streams that are partially correlated, wherein N > 1; determining N sets of received digital signals corresponding to N respective frequency division multiplexing, FDM, channels of the received optical signal at a single timeslot; determining N sets of preliminary digital signal estimates using the N sets of received digital signals and an inverse pseudo FDM, pFDM, transformation, wherein the inverse pFDM transformation is an operation applied to the received digital signals thereby resulting in the preliminary digital signal estimates, wherein each set of preliminary digital signal estimates is determined from a respective combination of the N sets of received digital signals, and wherein each respective combination is determined from the inverse pFDM transformation; and determining N multi-bit symbol estimates using the N respective sets of preliminary digital signal estimates, wherein, as a result of modulation of the modulated optical signal at the optical transmitter, the N information streams experience frequency-dependent effects of M effective FDM channels, wherein M ≥ 1, and wherein M < N, such that frequency-dependent signal degradations are averaged. receiving an optical signal over an optical communications channel established between the optical receiver and an optical transmitter (102,200), wherein the received optical signal comprises a degraded version of a modulated optical signal generated at the optical transmitter, and wherein the received optical signal represents N information streams that are partially correlated, wherein N > 1; determining N sets of received digital signals corresponding to N respective frequency division multiplexing, FDM, channels of the received optical signal at a single timeslot; determining N sets of preliminary digital signal estimates using the N sets of received digital signals and an inverse pseudo FDM, pFDM, transformation, wherein the inverse pFDM transformation is an operation applied to the received digital signals thereby resulting in the preliminary digital signal estimates, wherein each set of preliminary digital signal estimates is determined from a respective combination of the N sets of received digital signals, and wherein each respective combination is determined from the inverse pFDM transformation; and determining N multi-bit symbol estimates using the N respective sets of preliminary digital signal estimates, wherein, as a result of modulation of the modulated optical signal at the optical transmitter, the N information streams experience frequency-dependent effects of M effective FDM channels, wherein M ≥ 1, and wherein M < N, such that frequency-dependent signal degradations are averaged.
A dual-clutch transmission (1, 2, 3, 4) for a motor vehicle with a first transmission input shaft, with a second transmission input shaft, with a first drive shaft and a second drive shaft, with several gearwheels (11 to 24), with several coupling apparatuses (S1, S2, S3, S4, S5, S6), wherein the first transmission input shaft can be connected or is connected via a first friction clutch and the second transmission input shaft via a second friction clutch with a drive motor, wherein the gearwheels (11 to 24) are arranged meshing in such a way that several forward gears can be changed by means of the coupling apparatuses (S1 to S6), wherein at least one forward gear is formed as winding gear, wherein a power flow of the winding gear winds over several gearwheel levels, and wherein certain gearwheels form two double wheel levels (31, 32), wherein at least one of the double wheel levels (31, 32) has three individual idling gears (14, 18, 23; 15, 19, 24; 15, 19, 23), wherein one of these idling gears (14; 15) is assigned to one of the transmission input shafts (5 or 6) and the other two idling gears (18, 23; 19, 24; 19, 23) are assigned, respectively, to one of the two drive shafts (9, 10), characterised in that a hollow shaft is rotatably arranged on the second drive shaft, wherein the hollow shaft can be connected in a rotationally fixed manner via one of the coupling apparatuses with the drive shaft, wherein at least one idling gear (21, 22, 23) and at least one further coupling apparatus, particularly two further coupling apparatuses (S5, S6), are arranged on the hollow shaft, wherein the at least one idling gear (21, 22, 23) can be connected in a rotationally fixed manner by means of the at least one further coupling apparatus (S5 or S6) with the hollow shaft.
A display apparatus comprising: a display panel; a display chassis configured to support the display panel; and a cover provided on a rear surface of the display chassis, the rear surface of the display chassis covering the rear side of the display panel, wherein the cover includes: a cover body covering the rear surface of the display chassis; and a plurality of magnets disposed on the cover body and configured to generate an attractive force such that the cover body is attached to the rear surface of the display chassis, and characterized in that the cover body and the display chassis are coupled and fixed together at at least a part of their peripheries. a display panel; a display chassis configured to support the display panel; and a cover provided on a rear surface of the display chassis, the rear surface of the display chassis covering the rear side of the display panel, wherein the cover includes: a cover body covering the rear surface of the display chassis; and a plurality of magnets disposed on the cover body and configured to generate an attractive force such that the cover body is attached to the rear surface of the display chassis, and characterized in that the cover body and the display chassis are coupled and fixed together at at least a part of their peripheries. a cover body covering the rear surface of the display chassis; and a plurality of magnets disposed on the cover body and configured to generate an attractive force such that the cover body is attached to the rear surface of the display chassis, and characterized in that the cover body and the display chassis are coupled and fixed together at at least a part of their peripheries.