mhurhangee/ep-ind-claims huggingface dataset:
A module for dispensing a product intended to be mounted on a duct for supplying said product under pressure, said module having a return path for returning the product from a feed passage intended to be in communication with said duct to a passage for the outlet of said product for dispensing it, said return path having at least one downstream duct which leads into the outlet passage and at least one upstream duct which is in communication with the feed passage, the upstream and downstream ducts having a U-shaped junction which is designed to bring said upstream and downstream ducts into communication, at least one of said upstream and downstream ducts being delimited by at least one wall which is able to ensure a microbiocidal action on the product contained in said duct, the return path having a second upstream duct into which the feed passage leads to, the two upstream ducts (18, 23) being in communication via a second U-shaped junction, the direction of which is opposite to that of the U-shaped junction bringing the upstream and downstream ducts into communication, said module comprising a cap which is mounted on a base forming between them the return path having the feed and outlet passages, the cap having an orifice leading into a wall, the base having a needle, the free end of which is disposed in said orifice to form the outlet passage, the wall being equipped with an inner skirt which extends under the orifice and is disposed around the needle to form the downstream duct at the interface between the inner wall of said inner skirt and the peripheral wall of said needle, the upstream duct being formed at the interface between the outer wall of said inner skirt and the inner wall of a cup of the base, the U-shaped junction being formed between the free end of the inner skirt and a connecting surface between said needle and said cup, the wall being equipped with an outer skirt extending around the inner skirt, the second upstream duct being formed at the interface between the outer wall of the cup and the inner wall of the outer skirt, the second U-shaped junction being formed between the free end of the cup and a connecting surface between said skirts (20, 25) characterised in that the outer wall of the cup is equipped with axial gadroons which rest on the inner wall of the outer skirt, forming between them sectors for the circulation of the product in the second upstream duct, the gadroons carrying rings for snap-fitting the base in the cap.
A method of determining a decode matrix ( D̃) for decoding an encoded audio signal, the encoded audio signal being in Ambisonics format for L loudspeakers, the method comprising: - determining a set of loudspeaker positions comprising at least one virtual loudspeaker position Ω ^ L + 1 ′ and the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers; - determining a first matrix ( D ') having coefficients for the positions of the set of loudspeaker positions; - determining the decode matrix ( D̃) from the first matrix ( D '), at least by weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ') to coefficients relating to the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers, whereby the decode matrix ( D̃) has coefficients for the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers, wherein said weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ') comprises weighting said coefficient(s) with a weighting factor = 1 L. - determining a set of loudspeaker positions comprising at least one virtual loudspeaker position Ω ^ L + 1 ′ and the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers; - determining a first matrix ( D ') having coefficients for the positions of the set of loudspeaker positions; - determining the decode matrix ( D̃) from the first matrix ( D '), at least by weighting and distributing the coefficient(s) for the at least one virtual loudspeaker position of the first matrix ( D ') to coefficients relating to the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers, whereby the decode matrix ( D̃) has coefficients for the positions ( Ω̂ 1,..., Ω̂ L) of the L loudspeakers,
A method for washing delicate textile articles using a washing machine comprising a washing compartment in which a rotary drum is positioned, comprising the steps of: - putting the articles to be washed in the rotary drum; - introducing washing liquid into the drum; - making the drum rotate; the step of introducing washing liquid comprises flooding the drum with a quantity of washing liquid such that it imparts to the articles to be washed an Archimedes thrust which allows the articles to detach from the drum, thus allowing a step during which the articles float inside the drum; characterised in that a further rotational component, transversal to the axis of rotation of the drum, is transmitted to the articles to be washed by drawing bands located on the inner wall of the drum, parallel with the axis of rotation, and extending only along a portion of the entire axial length of the inner wall of the drum. - putting the articles to be washed in the rotary drum; - introducing washing liquid into the drum; - making the drum rotate;
A liner for a fan containment case assembly, the liner being characterised in that it comprises a plurality of arcuate panels arranged end to end to form a cylinder with a plurality of splice joints, each splice joint formed by an end of one panel meeting and abutting an end of another panel; a plurality of splice support cores (155, 255), each splice support core engaging and being disposed radially outside of one of the plurality of splice joints, the splice support cores comprising a molded polymer; and a plurality of standard support cores, each of the plurality of standard support cores being disposed radially outside one of the arcuate panels and between two of the splice support cores (155, 255).
An arrangement for damping vibrations in a vibrating mass in a paper/board machine environment, wherein the damping arrangement comprises an impact damper incorporated in the vibrating mass, the impact damper being located inside a roll of a paper/board machine for damping vibrations on the roll.
Apparatus for treating blood flow regurgitation through a native heart valve including first and second native leaflets, the apparatus comprising: a selective occlusion device (22, 22a) sized and configured to be implanted in the native heart valve and selectively operating with at least one of the first or second native leaflets to allow blood flow through the native heart valve when the heart cycle is in diastole and reduce blood flow regurgitation through the native heart valve when the heart cycle is in systole, a clip structure coupled with the selective occlusion device (22, 22a), the clip structure configured to be affixed to a margin of at least one of the first or second native leaflets to secure the selective occlusion device (22, 22a) to the native heart valve. wherein the selective occlusion device (22, 22a) comprises a prosthetic heart valve including a movable valve element configured to selectively control blood flow through the native heart valve and wherein the movable valve element comprises a flexible membrane configured to engage the first and second native leaflets of the native heart valve when the heart cycle is in systole and disengage the first and second native leaflets when the heart cycle is in diastole. a selective occlusion device (22, 22a) sized and configured to be implanted in the native heart valve and selectively operating with at least one of the first or second native leaflets to allow blood flow through the native heart valve when the heart cycle is in diastole and reduce blood flow regurgitation through the native heart valve when the heart cycle is in systole, a clip structure coupled with the selective occlusion device (22, 22a), the clip structure configured to be affixed to a margin of at least one of the first or second native leaflets to secure the selective occlusion device (22, 22a) to the native heart valve. wherein the selective occlusion device (22, 22a) comprises a prosthetic heart valve including a movable valve element configured to selectively control blood flow through the native heart valve and wherein the movable valve element comprises a flexible membrane configured to engage the first and second native leaflets of the native heart valve when the heart cycle is in systole and disengage the first and second native leaflets when the heart cycle is in diastole.
A lacing engine (102, 1200) for an article of footwear (198, 1700), comprising: a processor; a motor operatively coupled to the processor; a transmission operatively coupled to the motor; a lace spool (232, 1300, 1400, 1404, 1408, 1424, 1432, 1438), operatively coupled to the transmission, wherein a lace is configured to be wound around the spool based on a turning of the lace spool from action by the motor; and a haptic generator, separate from the motor and configured to generate a haptic sensation that is perceptible by a wearer of the article of footwear, the haptic sensation associated with a user interface experience, wherein the lacing engine further comprises a printed circuit board, PCB, on which the haptic generator is positioned. a processor; a motor operatively coupled to the processor; a transmission operatively coupled to the motor; a lace spool (232, 1300, 1400, 1404, 1408, 1424, 1432, 1438), operatively coupled to the transmission, wherein a lace is configured to be wound around the spool based on a turning of the lace spool from action by the motor; and a haptic generator, separate from the motor and configured to generate a haptic sensation that is perceptible by a wearer of the article of footwear, the haptic sensation associated with a user interface experience, wherein the lacing engine further comprises a printed circuit board, PCB, on which the haptic generator is positioned.
A process for preparing color-reduced (cyclo)aliphatic polyisocyanates, wherein the polyisocyanate which is based on (cyclo)aliphatic diisocyanates and has a higher than desired color number is irradiated with light having a wavelength of from 200 to 600 nm at a radiation dose of from 20 to 40 000 J/cm 2 in this wavelength range which is sufficient to reduce the color number by at least 1 Hazen, where the process is carried out without addition of ozone, oxygen or ozone-containing gas mixtures, organic peracids, peroxide or hydroperoxide and where the color number is determined according to DIN EN 1557.
An access method, comprising: accessing, by a mobile intelligent access point, a broadband mobile network through at least two wireless technologies; establishing, by a User Equipment, UE, a connection with the mobile intelligent access point; acquiring, by the UE, access authentication from the broadband mobile network through the mobile intelligent access point;, after the mobile intelligent access point accesses the broadband mobile network, providing, by the broadband mobile network, an uplink data policy of the mobile intelligent access point to the mobile intelligent access point; and selecting, by the mobile intelligent access point, one of said at least two wireless technologies according to the uplink data policy to transmit uplink data after the uplink data are received from the UE by the mobile intelligent access point. accessing, by a mobile intelligent access point, a broadband mobile network through at least two wireless technologies; establishing, by a User Equipment, UE, a connection with the mobile intelligent access point; acquiring, by the UE, access authentication from the broadband mobile network through the mobile intelligent access point;, after the mobile intelligent access point accesses the broadband mobile network, providing, by the broadband mobile network, an uplink data policy of the mobile intelligent access point to the mobile intelligent access point; and selecting, by the mobile intelligent access point, one of said at least two wireless technologies according to the uplink data policy to transmit uplink data after the uplink data are received from the UE by the mobile intelligent access point.
A compound represented by the following general formula: wherein in the general formula, Ar 1 represents an unsubstituted aryl group, Ar 2 and Ar 3 are the same as each other and represent an aryl group substituted with a group represented by the following general formula: wherein in the general formula, R 1 to R 8 each independently represent a hydrogen atom or a substituent; Z represents O, S, R 9 -N, (R 10) (R 11) C, or (R 12) (R 13) Si; and R 9 to R 13 each independently represent a hydrogen atom or a substituent, provided that R 1 and R 2, R 2 and R 3, R 3 and R 4, R 5 and R 6, R 6 and R 7, and R 7 and R 8 each may be bonded to each other to form a cyclic structure.
A method for requesting a radio resource control, RRC, connection by a user equipment, UE, in a wireless communication system, the method comprising: generating a message for an RRC connection request; generating a medium access control protocol data unit, MAC PDU, including a MAC header and the generated message; and transmitting the generated MAC PDU to a base station, wherein the MAC header includes a logical channel identity, LCID, informing a purpose associated with the RRC connection request, characterized in that the purpose associated with the RRC connection request is at least one of an initial RRC connection request, an RRC connection reestablishment request, and an RRC connection resumption request. generating a message for an RRC connection request; generating a medium access control protocol data unit, MAC PDU, including a MAC header and the generated message; and transmitting the generated MAC PDU to a base station, wherein the MAC header includes a logical channel identity, LCID, informing a purpose associated with the RRC connection request, characterized in that the purpose associated with the RRC connection request is at least one of an initial RRC connection request, an RRC connection reestablishment request, and an RRC connection resumption request.
An inclining aircraft ejection seat assembly, comprising: a curved ejection rail (26; 44); and an ejection seat (18b; 18') having a guide disposed on a side of the ejection seat (18b; 18') configured to travel along an arcuate path in mating alignment with the curved ejection rail (26; 44) and change a configuration of the ejection seat (18b; 18') from a reclining position to an inclining position prior to ejection. a curved ejection rail (26; 44); and an ejection seat (18b; 18') having a guide disposed on a side of the ejection seat (18b; 18') configured to travel along an arcuate path in mating alignment with the curved ejection rail (26; 44) and change a configuration of the ejection seat (18b; 18') from a reclining position to an inclining position prior to ejection.
Antibacterial composition comprising triethyl citrate and a peptide consisting of 15 amino acids of sequence FAKALKALLKALKAL-NH2, wherein F is phenylalanine, A is alanine, K is lysine, and L is leucine.
An antenna comprising: a main element with a shape of a loop that has a substantially rectangular shape; and two parasitic elements (106, 108) enclosed by the main element, wherein each parasitic element is shaped as a loop with an opening, and wherein the openings (112, 114) of the two parasitic elements (106, 108) are positioned adjacent to opposing sides of the main element, respectively wherein the two parasitic elements (106, 108) are configured to form a two-element inductively coupled resonator, wherein a long edge of the main element is substantially equal to one-quarter of a desired transmission wavelength, and wherein the two parasitic elements (106, 108) are configured to interact with the main element and with each other such that the antenna behaves as a family of closely coupled arrays. a main element with a shape of a loop that has a substantially rectangular shape; and two parasitic elements (106, 108) enclosed by the main element, wherein each parasitic element is shaped as a loop with an opening, and wherein the openings (112, 114) of the two parasitic elements (106, 108) are positioned adjacent to opposing sides of the main element, respectively wherein the two parasitic elements (106, 108) are configured to form a two-element inductively coupled resonator, wherein a long edge of the main element is substantially equal to one-quarter of a desired transmission wavelength, and wherein the two parasitic elements (106, 108) are configured to interact with the main element and with each other such that the antenna behaves as a family of closely coupled arrays.
A turbine ring assembly comprising a plurality of ring sectors forming a turbine ring and a ring support structure, each ring sector having, along a section plane defined by an axial direction (D A) and a radial direction (D R) of the turbine ring, a portion forming an annular base with, in the radial direction (D R) of the turbine ring, an inner face defining the inner face of the turbine ring and an outer face from which a first and a second attachment tabs (14, 16) protrude, the ring support structure including a central shroud from which a first and a second radial clamps (32, 36) protrude between which the first and second attachment tabs (14, 16) of each ring sector are maintained, characterized in that it comprises a one-piece annular flange removably fastened to the central shroud, the annular flange including a first free end, a second end coupled to the central shroud, a first portion extending from the first end, a second portion extending between the first portion and the second end, the first portion includes first and second tabs (33, 34) distinct from each other, the first tab bearing against the first attachment tab and the second tab being spaced apart from the first tab in the axial direction (D A), the second tab being upstream of the first tab with respect to the direction of an air flow intended to pass through the turbine ring assembly, the second portion of the annular flange comprising a bearing shroud protruding downstream in the axial direction (D A), the bearing shroud including a radial bearing in contact with the central shroud of the ring support structure.
An electromagnetic relay, in which an electromagnet block, formed by inserting an iron core through a through hole of a body of a spool wound with a coil, is mounted on an upper surface of a base such that a shaft center of the iron core is in parallel with the base, and a casing is fitted to the base to cover the electromagnet block, wherein the spool has guard portions (23, 24) provided on both sides of the body of the spool, characterized in that the guard portions (23, 24) are held and fixed between the base and the casing by the base and the casing.
A rigidizing overtube comprising: an elongate flexible tube; two or more mounting elements attached to the flexible tube; a plurality of engagers connected to each of the two or more mounting elements, wherein the plurality of engagers includes a plurality of female engagers (128, 228) and a plurality of male engagers (114, 214), each of the female engagers comprising an outer flange and an inner flange configured to fit a male engager therebetween; wherein the rigidizing overtube has a flexible configuration in which the plurality of male engagers are configured to move axially within and relative to the female engagers to accommodate bending of the flexible tube; wherein the rigidizing overtube has a rigid configuration in which the plurality of male engagers are fixed relative to the female engagers to prevent the flexible tube from bending; and wherein the overtube is configured to attach to a source of vacuum such that application of vacuum transitions the rigidizing overtube from the flexible configuration to the rigid configuration. an elongate flexible tube; two or more mounting elements attached to the flexible tube; a plurality of engagers connected to each of the two or more mounting elements, wherein the plurality of engagers includes a plurality of female engagers (128, 228) and a plurality of male engagers (114, 214), each of the female engagers comprising an outer flange and an inner flange configured to fit a male engager therebetween; wherein the rigidizing overtube has a flexible configuration in which the plurality of male engagers are configured to move axially within and relative to the female engagers to accommodate bending of the flexible tube; wherein the rigidizing overtube has a rigid configuration in which the plurality of male engagers are fixed relative to the female engagers to prevent the flexible tube from bending; and wherein the overtube is configured to attach to a source of vacuum such that application of vacuum transitions the rigidizing overtube from the flexible configuration to the rigid configuration.
A lithium-ion battery, comprising a positive electrode plate, a negative electrode plate, a separator, and a non-aqueous electrolyte, wherein the positive electrode plate comprises Li 1+x Ni a Co b Me (1-a-b) O 2-c Y c, wherein -0.1≤x≤0.2, 0.8≤a<1, 0<b<1, 0<(1-a-b)<1, 0≤c<1, Me is selected from one or more of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti, and Zr, and Y is selected from one or more of F, Cl, and Br; the non-aqueous electrolyte comprises a non-aqueous solvent and a lithium salt, wherein the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the high oxidation potential solvent comprising a compound represented by Formula I and also comprising a compound represented by Formula; in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated, or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I. the positive electrode plate comprises Li 1+x Ni a Co b Me (1-a-b) O 2-c Y c, wherein -0.1≤x≤0.2, 0.8≤a<1, 0<b<1, 0<(1-a-b)<1, 0≤c<1, Me is selected from one or more of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti, and Zr, and Y is selected from one or more of F, Cl, and Br; the non-aqueous electrolyte comprises a non-aqueous solvent and a lithium salt, wherein the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the high oxidation potential solvent comprising a compound represented by Formula I and also comprising a compound represented by Formula; in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated, or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I.
Use of a filling system for filling a component with an operating material, comprising a mixing unit which has a primary supply line, an outlet line, and at least one secondary supply line, wherein the primary supply line is conceived for providing a basic additive feed; and wherein the basic additive feed is fed by way of the at least one secondary supply line; and wherein the filling system comprises a metering installation which is conceived for setting supply flows from and/or in the supply lines (22, 24) into the mixing unit in such a manner that a predefined mixing ratio is able to be set in a component to be filled; wherein the primary supply line is conceived for providing a larger supply flow than the at least one secondary supply line; and wherein the fluid flows in the supply lines (22, 24, 26) by means of a control logic are controlled by open loop and/or closed loop in such a manner that the basic additive feed continues after the secondary supply lines have been switched off.