mhurhangee/ep-ind-claims huggingface dataset:
A combination of a cap and a push button for actuating a valve of a container, especially an aerosol can or spray can, the push button, which is pivotable about a joint, being designed to act via an angled-off spray channel against a stem of the container, in order to deflect the stem upon manual actuation of the push button and in order thus to open the value, whereby product contained in the container escapes through the stem and a product discharge opening provided on the cap, passing the spray channel, and a seal between the push button and the cap being an acoustic seal for the cap, wherein the push button is integrally constructed together with the spray channel, characterized in that the acoustic seal extends circumferentially around the push button and is formed by a sealing lip on a rim of the cap and a further sealing lip on an adjacent rim of the push button, wherein the sealing lip of the rim of the cap has a height that becomes larger as a distance of the sealing lip of the cap from the joint increases so that a free edge of the sealing lip of the push button contacts the sealing lip of the cap even when the push button is completely depressed.
A method for providing information on a neighboring user equipment, UE, in a wireless communication system in which a macro cell and a small cell coexist, the method performed by a UE and comprising: performing, by the UE, a handover from the macro cell to the small cell when the UE is located at a cell range expansion, CRE, region; receiving, by the UE located at the CRE region from the small cell, a request for discovering at least one neighboring UE to the UE, wherein the neighboring UE is served by the macro cell; overhearing, by the UE located at the CRE region, a signal which is transmitted to the macro cell from the neighboring UE; measuring, by the UE, a signal intensity of the overheard signal of the neighboring UE; and transferring, by the UE, information on the neighboring UE to the small cell when the signal intensity of the overheard signal meets a predetermined condition. performing, by the UE, a handover from the macro cell to the small cell when the UE is located at a cell range expansion, CRE, region; receiving, by the UE located at the CRE region from the small cell, a request for discovering at least one neighboring UE to the UE, wherein the neighboring UE is served by the macro cell; overhearing, by the UE located at the CRE region, a signal which is transmitted to the macro cell from the neighboring UE; measuring, by the UE, a signal intensity of the overheard signal of the neighboring UE; and transferring, by the UE, information on the neighboring UE to the small cell when the signal intensity of the overheard signal meets a predetermined condition.
A rolling apparatus for a flat-rolled metal material, the rolling apparatus including at least a pair of upper and lower work rolls (1, 2) and a pair of upper and lower backup rolls (3, 4), the rolling apparatus comprising: a pair of work roll chocks (5, 6) configured to hold the respective work rolls (1, 2); housings or project blocks (11, 12) configured to hold the work roll chocks (5,6); and one or more rolling direction force measurement devices (21, 22, 23, 24) configured to measure rolling direction forces acting on the work roll chocks (5, 6), wherein at least one of the rolling direction force measurement devices (21, 22, 23, 24) includes a plurality of load detection devices (21a, 21b, 22a, 22b, 23a, 23b, 24a, 24b) on an entry side or an exit side of the work roll chocks (5, 6) in a rolling direction, and the plurality of load detection devices (21a, 21b, 22a, 22b, 23a, 23b, 24a, 24b) are provided to one of the housings or one of the project blocks (11, 12), characterized in that the load detection devices (21a, 21b, 22a, 22b, 23a, 23b, 24a, 24b) are disposed in a manner that, on all occasions, a point of effort of a rolling direction force of one of the work rolls (1, 2) is interposed between at least two of the load detection devices (21a, 21b, 22a, 22b, 23a, 23b, 24a, 24b) in the rolling force direction, and that the at least two of the load detection devices (21a, 21b, 22a, 22b, 23a, 23b, 24a, 24b) face a side surface of a corresponding one of the work roll chocks (5, 6). a pair of work roll chocks (5, 6) configured to hold the respective work rolls (1, 2); housings or project blocks (11, 12) configured to hold the work roll chocks (5,6); and one or more rolling direction force measurement devices (21, 22, 23, 24) configured to measure rolling direction forces acting on the work roll chocks (5, 6),
A device for injecting a mixture of air and fuel into a combustion chamber of a turbomachine, the injection device having symmetry of revolution about an axis and comprising, arranged from upstream to downstream in the direction in which the gases flow, a sliding bushing of axis of revolution Y connected to radial swirl inducers by a dish, an aerodynamic bowl spaced axially from the radial swirl inducers, the sliding bushing comprising a convergent conical upstream wall continuing into a cylindrical wall of axis Y and a downstream flange extending radially at the downstream end of the cylindrical wall, the downstream flange being equipped with pressurized-air supply holes also known as purge holes, characterized in that the convergent upstream wall of the sliding bushing is equipped with at least one row of circumferentially-spaced additional pressurized-air supply orifices.
A cigarette filter connected through tipping paper at one end of a tobacco rod in which tobacco shreds are wrapped in cigarette paper, the cigarette filter comprising: a filter material arranged at an inhalation end of the filter; and wrapping paper wrapping the filter material so as to cover the outer circumferential surface of the filter material, wherein the wrapping paper is colored on its covering surface that covers the filter material, and the cigarette filter further comprises a light-permeable portion which is formed at the inhalation end of the filter, on the inside of the filter lateral cross-section from the covering surface of the wrapping paper, and through which visible light can penetrate, the light-permeable portion emitting reflected light of visible light reflecting off the covering surface to the outside so that the color of the covering surface is visually recognizable. a filter material arranged at an inhalation end of the filter; and wrapping paper wrapping the filter material so as to cover the outer circumferential surface of the filter material, wherein the wrapping paper is colored on its covering surface that covers the filter material, and the cigarette filter further comprises a light-permeable portion which is formed at the inhalation end of the filter, on the inside of the filter lateral cross-section from the covering surface of the wrapping paper, and through which visible light can penetrate, the light-permeable portion emitting reflected light of visible light reflecting off the covering surface to the outside so that the color of the covering surface is visually recognizable.
An aroma or flavor-imparting composition comprising methional, dienals and thiazoles in proportions satisfying 20≤A≤80, 20≤B≤80 and 0<C≤40 and A+B+C=100 wherein A shows parts by weight of methional, B shows parts by weight of dienals and C shows parts by weight of thiazoles, wherein the thiazoles are 2-isobutylthiazole and/or 5-acetyl-2,4-dimethylthiazole.
A wearable breast pump system including: (a) a housing shaped at least in part to fit inside a bra; (b) a piezo air-pump fitted in the housing and forming part of a closed loop system that drives a separate, deformable diaphragm to generate negative air pressure, that diaphragm being removably mounted onto a diaphragm housing that forms part of a breast shield, and in which the diaphragm is configured to seal, self-seal, self-energising seal or interference fit seal against the diaphragm housing. (a) a housing shaped at least in part to fit inside a bra; (b) a piezo air-pump fitted in the housing and forming part of a closed loop system that drives a separate, deformable diaphragm to generate negative air pressure, that diaphragm being removably mounted onto a diaphragm housing that forms part of a breast shield, and in which the diaphragm is configured to seal, self-seal, self-energising seal or interference fit seal against the diaphragm housing.
A loudspeaker system comprising a woofer, a midrange speaker, and a tweeter, the midrange speaker and the tweeter being positioned in front of the woofer, the loudspeaker system comprising: support means having a mounting member shaped to be received in an opening, wherein said mounting member is in a first plane, wherein the first plane includes a grill; and means for securing the midrange speaker and the tweeter in front of the woofer, a plane of the midrange speaker and the tweeter being at a first acute angle with the first plane; characterized in that it further comprises: means for mounting the woofer on the support means, wherein the center axis of the woofer on the support means is at a second acute angle to the first plane; and a midrange speaker and tweeter baffle comprising a skirt flared downwardly from the tweeter and midrange speaker, wherein the midrange speaker and tweeter baffle is positioned between the woofer, and the midrange speaker and tweeter, wherein the midrange speaker and tweeter baffle extends partially in front of the woofer, and wherein the midrange speaker and tweeter baffle is contoured to direct sound from the tweeter and midrange speaker in a direction angular to the center axis of the woofer. support means having a mounting member shaped to be received in an opening, wherein said mounting member is in a first plane, wherein the first plane includes a grill; and means for securing the midrange speaker and the tweeter in front of the woofer, a plane of the midrange speaker and the tweeter being at a first acute angle with the first plane; means for mounting the woofer on the support means, wherein the center axis of the woofer on the support means is at a second acute angle to the first plane; and a midrange speaker and tweeter baffle comprising a skirt flared downwardly from the tweeter and midrange speaker, wherein the midrange speaker and tweeter baffle is positioned between the woofer, and the midrange speaker and tweeter, wherein the midrange speaker and tweeter baffle extends partially in front of the woofer, and wherein the midrange speaker and tweeter baffle is contoured to direct sound from the tweeter and midrange speaker in a direction angular to the center axis of the woofer.
A wireless transmit/receive unit, WTRU, for performing polar code encoding and/or decoding based on a polar code graph consisting of (n+1) N nodes, where N denotes the code length of the polar code with N=2 n, each node being indexed by (i,j) with bit index i = 1, 2,..., N and level j=0, 1,..., n, nodes (i, 0) indicate input bits for polar code encoding and nodes (i, n) indicate output coded bits and each node (i,j) is associated with a relaxation attribute RL i,j, the WTRU comprising: a processor configured to: select an initial relaxation attribute RL i,0 using a reliability order of input bit indices, wherein the initial relaxation attribute RL i,0 = 1 indicates that the associated nodes are included in a set of most reliable bit indices or in a set of least reliable bit indices; determine one or more relaxation groups and a corresponding final relaxation level for each of the one or more relaxation groups based on the initial relaxation attributes RL i, 0 according to where c is the minimum block size of each of said one or more relaxation groups; and for each determined relaxation group, iteratively select relaxation attributes RL i,j for the level j =1 up to the final relaxation level of said relaxation group as RL i,j = 1 if RL i,j -1 = 1 for bit indices i within said relaxation group; and perform polar code encoding using the polar code graph by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no XOR operation among said relaxed paired nodes is performed and/or perform polar code decoding by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no decoding XOR operation among said relaxed paired nodes is performed. select an initial relaxation attribute RL i,0 using a reliability order of input bit indices, wherein the initial relaxation attribute RL i,0 = 1 indicates that the associated nodes are included in a set of most reliable bit indices or in a set of least reliable bit indices; determine one or more relaxation groups and a corresponding final relaxation level for each of the one or more relaxation groups based on the initial relaxation attributes RL i, 0 according to where c is the minimum block size of each of said one or more relaxation groups; and for each determined relaxation group, iteratively select relaxation attributes RL i,j for the level j =1 up to the final relaxation level of said relaxation group as RL i,j = 1 if RL i,j -1 = 1 for bit indices i within said relaxation group; and perform polar code encoding using the polar code graph by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no XOR operation among said relaxed paired nodes is performed and/or perform polar code decoding by relaxing paired nodes where both paired nodes have a relaxation attribute RL i,j =1 so that no decoding XOR operation among said relaxed paired nodes is performed.
A fibrous layer comprising a combination of: first fibers comprising 20 to 50 weight percent of a reinforcing fiber; 50 to 70 weight percent of a continuous phase polymer fiber having a melt temperature at least 20°C lower than the reinforcing fibers; and wherein the first fibers are multicomponent fibers comprising - a reinforcing polyetherimide core and a continuous phase liquid crystal sheath or - a reinforcing liquid crystal polymer core and a continuous phase polyetherimide sheath, 5 to 10 weight percent of binder fibers having a melt temperature lower than that of the continuous phase fibers, wherein the weight percent of each of the fibers is based on the total weight of the fibers in the layer and the thickness of the mat is more than 0 to less than 300 μm.. first fibers comprising 20 to 50 weight percent of a reinforcing fiber; 50 to 70 weight percent of a continuous phase polymer fiber having a melt temperature at least 20°C lower than the reinforcing fibers; and wherein the first fibers are multicomponent fibers comprising - a reinforcing polyetherimide core and a continuous phase liquid crystal sheath or - a reinforcing liquid crystal polymer core and a continuous phase polyetherimide sheath, - a reinforcing polyetherimide core and a continuous phase liquid crystal sheath or - a reinforcing liquid crystal polymer core and a continuous phase polyetherimide sheath, 5 to 10 weight percent of binder fibers having a melt temperature lower than that of the continuous phase fibers, wherein the weight percent of each of the fibers is based on the total weight of the fibers in the layer and the thickness of the mat is more than 0 to less than 300 μm..
A composite material with a plurality of fibre composite layers and a region of reinforcement with at least one reinforcement layer of a material which reinforces the fibre composite layers, and with perforations (50, 51) in the reinforcement layer characterised in that one or more bores are conducted through the composite material in the region, in which the fibre composite layers are provided with one or more reinforcement layers, in that bolts are guided through the bore(s), in that facilities for engaging with forces are provided at the bolts, in that the or at least one of the reinforcement layers are configured to be homogenous and free of perforations in a region around the bore(s), and in that the reinforcement layer in regions (34, 35) outside the region around the bores is provided with perforations (51, 52), the size and/or number per unit area of which are formed in dependence on the loading condition of the reinforcement layer in the respective regions (34, 35).
Screw press, comprising a frame on which is mounted a motor, a pressing screw (1; 1') being mounted on an output shaft of the motor, said pressing screw (1; 1') being installed in a pressing sleeve equipped with a filter screen, juice/residue separating means being installed below said pressing sleeve, characterised in that said pressing screw (1; 1') comprises an upper part which is a cutting part (2; 2') and a lower part, which is a pressing part (4; 4'), and in that said cutting part (2; 2') consists of several cutting blades (21, 22, 23; 21', 22', 23') which form axially several levels.
Procedure for the fabrication of a probe of a thermal flowmeter for the measurement of the mass flow of a medium in a measuring tube, wherein said procedure comprises the following steps: Insertion of a probe core in the form of a molten material in a first probe sleeve, wherein the first probe sleeve has an open first end and a closed second end facing away from the first end; Smelting of the probe core; Cooling of the probe core to a temperature less than the solidification temperature; Application of a thermocouple on a contact surface of the solidified probe core, characterized in that the contact surface is prepared for the application of the thermocouple by mechanical processing, wherein, following the cooling of the probe core, the probe core is exposed in a first area by the partial removal of a wall of the first probe sleeve, wherein, following the exposure of said area, a second probe sleeve having an open third end and an open fourth end is joined, particularly welded, in a leak-tight manner to the first end of the first probe sleeve by means of the third open end, wherein the second probe sleeve entirely surrounds the first area. Insertion of a probe core in the form of a molten material in a first probe sleeve, wherein the first probe sleeve has an open first end and a closed second end facing away from the first end; Smelting of the probe core; Cooling of the probe core to a temperature less than the solidification temperature; Application of a thermocouple on a contact surface of the solidified probe core, characterized in that the contact surface is prepared for the application of the thermocouple by mechanical processing, wherein, following the cooling of the probe core, the probe core is exposed in a first area by the partial removal of a wall of the first probe sleeve, wherein, following the exposure of said area, a second probe sleeve having an open third end and an open fourth end is joined, particularly welded, in a leak-tight manner to the first end of the first probe sleeve by means of the third open end, wherein the second probe sleeve entirely surrounds the first area.
A fluid delivery system for dispensing a liquid from a sealed container directly into a closed chamber comprising: a container containing a liquid component of bone cement and sealed with a sealing member; and a closed chamber comprising a receiving port for receiving the sealed container; in which the receiving port includes a hollow protrusion for telescopically receiving the container; characterised in that: the receiving port includes a support element configured to support the sealing member at a defined height and a channel so that the liquid component is transferred through the channel and into the chamber in direct response to manual insertion of the container through the receiving port; the chamber has a planetary mixing arm; and in that the fluid delivery system further comprises a handle configured to rotate to rotate the mixing arm within the chamber to facilitate mixing of the bone cement. a container containing a liquid component of bone cement and sealed with a sealing member; and a closed chamber comprising a receiving port for receiving the sealed container; in which the receiving port includes a hollow protrusion for telescopically receiving the container; the receiving port includes a support element configured to support the sealing member at a defined height and a channel so that the liquid component is transferred through the channel and into the chamber in direct response to manual insertion of the container through the receiving port; the chamber has a planetary mixing arm; and in that the fluid delivery system further comprises a handle configured to rotate to rotate the mixing arm within the chamber to facilitate mixing of the bone cement.
A method for tone mapping, the method comprising: configuring, by at least one processor, at least one tone mapping function (205, 210, 405, 410) based on a measure of a distribution of luminance values within video data, the measure representing a luminance level at which a predetermined percentage of pixels of the video data have luminance values satisfying a threshold condition, wherein the configured at least one tone mapping function comprises at least one of a low tone mapping function or a high tone mapping function within a luminance range determined with respect to the measure, wherein the configured at least one tone mapping function further comprises a predetermined function outside of the determined luminance range, and wherein the predetermined function is different from the at least one of the low tone mapping function or the high tone mapping function; and generating a tone mapped video (255, 755) by applying at least one of the low tone mapping function or the high tone mapping function to the video data within the determined luminance range and applying the predetermined function to the video data outside of the determined luminance range. configuring, by at least one processor, at least one tone mapping function (205, 210, 405, 410) based on a measure of a distribution of luminance values within video data, the measure representing a luminance level at which a predetermined percentage of pixels of the video data have luminance values satisfying a threshold condition, wherein the configured at least one tone mapping function comprises at least one of a low tone mapping function or a high tone mapping function within a luminance range determined with respect to the measure, wherein the configured at least one tone mapping function further comprises a predetermined function outside of the determined luminance range, and wherein the predetermined function is different from the at least one of the low tone mapping function or the high tone mapping function; and generating a tone mapped video (255, 755) by applying at least one of the low tone mapping function or the high tone mapping function to the video data within the determined luminance range and applying the predetermined function to the video data outside of the determined luminance range.