mhurhangee/ep-ind-claims huggingface dataset:
A tunable coupler (120, 210, 710) assembly for linking two components (112, 114, 202, 204, 702, 704) in a superconducting circuit (100, 200, 700), comprising: a plurality of circuit elements, each implemented as one of an inductor, a capacitor, and a Josephson junction, connected in series on a first path (122, 220, 720) connecting the two components (112, 114, 202, 204, 702, 704); and a plurality of tunable oscillators (124, 125, 232 - 235, 732 - 735), each tunable oscillator (124, 125, 232 - 235, 732 - 735) connecting the first path (122, 220, 720) which is connecting the two components (112, 114, 202, 204, 702, 704) to a second path (238, 738) which is connecting the two components (112, 114, 202, 204, 702, 704), each tunable oscillator (124, 125, 232 - 235, 732 - 735) being responsive to a control signal to tune an associated resonance frequency of the tunable oscillator (124, 125, 232 - 235, 732 - 735) within a first frequency range and within a second frequency range, wherein the two components (112, 114, 202, 204, 702, 704) are coupled when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said first frequency range, and wherein the two components (112, 114, 202, 204, 702, 704) are isolated when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said second frequency range. a plurality of circuit elements, each implemented as one of an inductor, a capacitor, and a Josephson junction, connected in series on a first path (122, 220, 720) connecting the two components (112, 114, 202, 204, 702, 704); and a plurality of tunable oscillators (124, 125, 232 - 235, 732 - 735), each tunable oscillator (124, 125, 232 - 235, 732 - 735) connecting the first path (122, 220, 720) which is connecting the two components (112, 114, 202, 204, 702, 704) to a second path (238, 738) which is connecting the two components (112, 114, 202, 204, 702, 704), each tunable oscillator (124, 125, 232 - 235, 732 - 735) being responsive to a control signal to tune an associated resonance frequency of the tunable oscillator (124, 125, 232 - 235, 732 - 735) within a first frequency range and within a second frequency range, wherein the two components (112, 114, 202, 204, 702, 704) are coupled when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said first frequency range, and wherein the two components (112, 114, 202, 204, 702, 704) are isolated when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said second frequency range.
A method for producing serum or autologous fluid with enhanced IL-1Ra, comprising: providing a container with internal walls supporting a protein binding site, the internal walls being coated with a protein binding composition; contacting serum or autologous fluid with the protein binding composition of the container, the protein binding composition comprising antibodies that remove 1L-1 beta from the serum or the autologous fluid; and allowing the serum or autologous fluid to interact with the protein binding composition to capture unwanted material comprising the 1L-1beta produced by cells of the serum or autologous fluid, and to obtain a serum or autologous fluid with enhanced IL-IRa, wherein the container is a tubing with two open ends, and the step of contacting the serum or autologous fluid with the binding composition further comprises passing the serum or autologous fluid back and forth through the tubing. providing a container with internal walls supporting a protein binding site, the internal walls being coated with a protein binding composition; contacting serum or autologous fluid with the protein binding composition of the container, the protein binding composition comprising antibodies that remove 1L-1 beta from the serum or the autologous fluid; and allowing the serum or autologous fluid to interact with the protein binding composition to capture unwanted material comprising the 1L-1beta produced by cells of the serum or autologous fluid, and to obtain a serum or autologous fluid with enhanced IL-IRa, wherein the container is a tubing with two open ends, and the step of contacting the serum or autologous fluid with the binding composition further comprises passing the serum or autologous fluid back and forth through the tubing.
A composition in form of an emulsion comprising at least one fatty phase, at least one aqueous phase, and: a) at least one first surfactant chosen from C 8 -C 22 alkyl dimethicone copolyols; b) at least one second surfactant chosen from dimethicone copolyols, which is different from the first surfactant a); c) at least one third surfactant which is different from the first or the second surfactant a) or b), having a HLB value of greater than or equal to 8; and d) at least one hydrophilic pigment. a) at least one first surfactant chosen from C 8 -C 22 alkyl dimethicone copolyols; b) at least one second surfactant chosen from dimethicone copolyols, which is different from the first surfactant a); c) at least one third surfactant which is different from the first or the second surfactant a) or b), having a HLB value of greater than or equal to 8; and d) at least one hydrophilic pigment.
A superabsorbent polymer composition comprising superabsorbent polymer particles comprising crosslinked polymer of water-soluble ethylenically unsaturated monomers including acid groups, of which at least a part are neutralized; a particulate antimicrobial agent comprising a quaternary ammonium salt of a silane-based compound; and further comprising a chelating agent; or a mixture of organic acid and a silicate-based salt, wherein the chelating agent is included in the content of 0.1 to 3 parts by weight, based on 100 parts by weight of the superabsorbent polymer particles. superabsorbent polymer particles comprising crosslinked polymer of water-soluble ethylenically unsaturated monomers including acid groups, of which at least a part are neutralized; a particulate antimicrobial agent comprising a quaternary ammonium salt of a silane-based compound; and further comprising a chelating agent; or a mixture of organic acid and a silicate-based salt, wherein the chelating agent is included in the content of 0.1 to 3 parts by weight, based on 100 parts by weight of the superabsorbent polymer particles.
A vacuum cleaner comprising: a cleaner body; a suction hose mounted at a front side of the cleaner body to suck in dust; moving wheels provided at both sides of the cleaner body, rotating to move the cleaner body, and rotatably supporting the cleaner body; wheel motors connected to the moving wheels and rotating the moving wheels; and a detecting part provided in the cleaner body and sensing an inclination angle of the cleaner body to determine whether the cleaner is moving or stops, characterized in that the vacuum cleaner further comprises: a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle; and a controller configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members, wherein the plurality of obstacle detecting member includes: a front sensor (44b, 44c) provided at both sides of the suction hose and configured to emit light forward to sense an obstacle located in front of the cleaner body; and a lateral sensor (44a, 44d) provided more rearward than the front sensor and configured to emit light in a lateral direction to sense an obstacle located beside the cleaner body. a cleaner body; a suction hose mounted at a front side of the cleaner body to suck in dust; moving wheels provided at both sides of the cleaner body, rotating to move the cleaner body, and rotatably supporting the cleaner body; wheel motors connected to the moving wheels and rotating the moving wheels; and a detecting part provided in the cleaner body and sensing an inclination angle of the cleaner body to determine whether the cleaner is moving or stops, characterized in that the vacuum cleaner further comprises: a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle; and a controller configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members, a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle; and a controller configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members, wherein the plurality of obstacle detecting member includes: a front sensor (44b, 44c) provided at both sides of the suction hose and configured to emit light forward to sense an obstacle located in front of the cleaner body; and a lateral sensor (44a, 44d) provided more rearward than the front sensor and configured to emit light in a lateral direction to sense an obstacle located beside the cleaner body. a front sensor (44b, 44c) provided at both sides of the suction hose and configured to emit light forward to sense an obstacle located in front of the cleaner body; and a lateral sensor (44a, 44d) provided more rearward than the front sensor and configured to emit light in a lateral direction to sense an obstacle located beside the cleaner body.
An image projection device (30; 80; 100) comprising: at least one waveguide (32 i; 82 p) formed in a substrate; at least one laser emission source (41 i; 91 i; 93 i) of controllable intensity configured to inject into the waveguide (32 i; 82 p) a laser beam of constant orientation; and at least one extraction device (37 i; 87 p) comprising a plurality of extraction cells (39 ij; 89 pq) coupled to different areas of the guide (32 i; 82 p) via a main surface (35c i) of the guide, each cell (39 ij; 89 pq) corresponding to a single pixel of the image and being capable of being electrically activated to extract light from the guide and project this light along a predetermined projection direction (d39 ij; d89 pq), the device being characterized in that the different extraction cells (39 ij; 89 pq) have projection directions (d39 ij; d89 pq) with different orientations with respect to the main surface (35c i) of the corresponding guide. at least one waveguide (32 i; 82 p) formed in a substrate; at least one laser emission source (41 i; 91 i; 93 i) of controllable intensity configured to inject into the waveguide (32 i; 82 p) a laser beam of constant orientation; and at least one extraction device (37 i; 87 p) comprising a plurality of extraction cells (39 ij; 89 pq) coupled to different areas of the guide (32 i; 82 p) via a main surface (35c i) of the guide, each cell (39 ij; 89 pq) corresponding to a single pixel of the image and being capable of being electrically activated to extract light from the guide and project this light along a predetermined projection direction (d39 ij; d89 pq), the device being characterized in that the different extraction cells (39 ij; 89 pq) have projection directions (d39 ij; d89 pq) with different orientations with respect to the main surface (35c i) of the corresponding guide.
A compressor comprising a piston structure, which comprises a guide member configured to reciprocate inside a cylinder in an axial direction, and a magnet frame configured to support a mover that moves together with the piston structure, wherein the piston structure comprises the guide member and a mount member connected to the magnet frame, and the guide member is coupled to be relatively rotatable with respect to the mount member, wherein the piston structure further comprises a rotational coupling member rotatably coupling the guide member to the mount member, characterized in that the rotational coupling member includes a support portion supported inside the guide member and a shaft member coupled to the support portion, and in that the shaft member is disposed to cross an inner space of the guide member and pass through a center of mass of the guide member. wherein the piston structure comprises the guide member and a mount member connected to the magnet frame, and the guide member is coupled to be relatively rotatable with respect to the mount member, wherein the piston structure further comprises a rotational coupling member rotatably coupling the guide member to the mount member, characterized in that the rotational coupling member includes a support portion supported inside the guide member and a shaft member coupled to the support portion, and in that the shaft member is disposed to cross an inner space of the guide member and pass through a center of mass of the guide member.
A printing apparatus comprising: a holding unit configured to hold a bag including a storage portion that is pliable and is configured to store ink used for printing, and a discharge port through which the ink is discharged; and an agitating unit configured to agitate the ink, characterised in that the holding unit is configured such that the storage portion is inclined with respect to a horizontal direction, and the bag is held in a position such that the discharge port is disposed below the storage portion; and the agitating unit includes a pressing member configured to press the storage portion from a lower side towards an upper side to deform the storage portion. a holding unit configured to hold a bag including a storage portion that is pliable and is configured to store ink used for printing, and a discharge port through which the ink is discharged; and an agitating unit configured to agitate the ink, characterised in that the holding unit is configured such that the storage portion is inclined with respect to a horizontal direction, and the bag is held in a position such that the discharge port is disposed below the storage portion; and the agitating unit includes a pressing member configured to press the storage portion from a lower side towards an upper side to deform the storage portion.
A method of establishing a new communications path between two end devices in a heterogeneous network which includes a plurality of sub-networks in response to failure of a previously established communications path between the two end devices, the failure occurring in a sub-network at a failure location whose identity is not to be revealed to an external device outside the sub-network responsible for maintaining communications between the two end devices, the method comprising: signalling to the external device that the failure has occurred, the signalling including an encoded identifier of the failure location, the encoded identifier enabling identification of the failure location within the sub-network while masking the identity of the failure location to the external device; at the external device, issuing a path-establishment message for the new communications path, the path-establishment message indicating that the new communications path should exclude the failure location as identified by the encoded identifier; and within the sub-network, responding to the path-establishment message by determining whether a path segment for the new communications path can be provided through the sub-network excluding the failure location as identified by the encoded identifier from the path-establishment message. signalling to the external device that the failure has occurred, the signalling including an encoded identifier of the failure location, the encoded identifier enabling identification of the failure location within the sub-network while masking the identity of the failure location to the external device; at the external device, issuing a path-establishment message for the new communications path, the path-establishment message indicating that the new communications path should exclude the failure location as identified by the encoded identifier; and within the sub-network, responding to the path-establishment message by determining whether a path segment for the new communications path can be provided through the sub-network excluding the failure location as identified by the encoded identifier from the path-establishment message.
A method for producing a PAU zeolite comprising: mixing a silica source, an alumina source, an alkali source, and water so as to be a reaction mixture having a composition represented by a molar ratio given below; SiO 2 /Al 2 O 3 = 8 to 24 K 2 O/SiO 2 = 0.3 to 0.7 H 2 O/SiO 2 = 5 to 50 using an organic compound-free PAU zeolite, in which the SiO 2 /Al 2 O 3 ratio ranges from 4 to 15 and a mean particle size is equal to or more than 100 nm, as a seed crystal, and adding the organic compound-free PAU zeolite to the reaction mixture at a rate of 0.1 to 20% by weight with respect to a silica component in the reaction mixture; and airtightly heating the reaction mixture to which the seed crystal is added at 80 to 200°C. mixing a silica source, an alumina source, an alkali source, and water so as to be a reaction mixture having a composition represented by a molar ratio given below; SiO 2 /Al 2 O 3 = 8 to 24 K 2 O/SiO 2 = 0.3 to 0.7 H 2 O/SiO 2 = 5 to 50 SiO 2 /Al 2 O 3 = 8 to 24 K 2 O/SiO 2 = 0.3 to 0.7 H 2 O/SiO 2 = 5 to 50 using an organic compound-free PAU zeolite, in which the SiO 2 /Al 2 O 3 ratio ranges from 4 to 15 and a mean particle size is equal to or more than 100 nm, as a seed crystal, and adding the organic compound-free PAU zeolite to the reaction mixture at a rate of 0.1 to 20% by weight with respect to a silica component in the reaction mixture; and airtightly heating the reaction mixture to which the seed crystal is added at 80 to 200°C.
A braking and/or clamping device for a shaft guided in relation to a main body, wherein the brake and/or clamping device comprises an actuating subassembly and a shaft attachment subassembly (60, 80, 90, 100, 110), - wherein the actuating subassembly comprises two annular discs (11, 12) which rest closely against one another directly or via an intermediate member in a common contact zone and each have an elastically pliable bending zone in sections outside the contact zone, - wherein the annular discs (11, 12) each have jaws (27, 28) with frictional faces (31, 32) in two clamping zones lying opposite one another, the surface normals whereof are oriented inwardly, - wherein a sealed pressure chamber is arranged between the annular discs (11, 12) which can be filled with pressure medium for the elastic pressing-apart of the friction surfaces (31, 32), - wherein the shaft attachment subassembly (60, 80, 90, 100, 110) comprises a coupling region which has two frictional faces (71, 72) spaced apart from one another, the surface normals whereof point outwardly, - wherein the shaft attachment subassembly (60, 80, 90, 100, 110) comprises a shaft attachment region, - wherein the shaft attachment region is arranged on the coupling region either directly or indirectly via a clamping mechanism and - wherein when the pressure chamber is relaxed, the friction faces (31, 32) of the actuating subassembly are applied to the friction faces (71, 72) of the shaft attachment subassembly (60, 80, 90, 100, 110) while supplying the clamping and/or braking force. - wherein the actuating subassembly comprises two annular discs (11, 12) which rest closely against one another directly or via an intermediate member in a common contact zone and each have an elastically pliable bending zone in sections outside the contact zone, - wherein the annular discs (11, 12) each have jaws (27, 28) with frictional faces (31, 32) in two clamping zones lying opposite one another, the surface normals whereof are oriented inwardly, - wherein a sealed pressure chamber is arranged between the annular discs (11, 12) which can be filled with pressure medium for the elastic pressing-apart of the friction surfaces (31, 32), - wherein the shaft attachment subassembly (60, 80, 90, 100, 110) comprises a coupling region which has two frictional faces (71, 72) spaced apart from one another, the surface normals whereof point outwardly, - wherein the shaft attachment subassembly (60, 80, 90, 100, 110) comprises a shaft attachment region, - wherein the shaft attachment region is arranged on the coupling region either directly or indirectly via a clamping mechanism and - wherein when the pressure chamber is relaxed, the friction faces (31, 32) of the actuating subassembly are applied to the friction faces (71, 72) of the shaft attachment subassembly (60, 80, 90, 100, 110) while supplying the clamping and/or braking force.
A lubricant for fittings in domestic appliances, wherein the lubricant contains boron nitride and silicone oil as a polysiloxane and has a temperature resistance of -50°C up to over 600°C and is substantially a mixture of boron nitride, graphite and silicone oil, characterized in that the lubricant contains boron nitride in a mass fraction w (boron nitride) of between 20% up to 30%, graphite in a mass fraction w (graphite) of between 20% up to 30% and silicone oil in a mass fraction w (silicone oil) of between 45% up to 55%.
A method of joining a lighting device to a network and pairing the lighting device with a remote control device, the method comprising: a) transmitting a joining code from a joining code emitter to one or more lighting devices (3, 3') using an electromagnetic radiation signal; b) selecting, by a user, one of the one or more lighting devices (3, 3') to be joined to a network and paired with a remote control device by the user directing a directional beam of electromagnetic radiation from a directional beam emitter onto a sensor of the selected lighting device; c) in response to receipt by the selected lighting device (3, 3') of the directional beam of electromagnetic radiation and of the joining code, transmitting the joining code from the selected lighting device (3, 3') to a network controller, comparing, at the network controller, the joining code with one or more access codes for the network, and, if the received joining code matches an access code of said one or more access codes for the network, joining the selected lighting device (3, 3') to the network; and d) pairing the joined selected lighting device (3, 3') with the remote control device such that the joined selected lighting device (3, 3') is controllable, on the network, by the remote control device. a) transmitting a joining code from a joining code emitter to one or more lighting devices (3, 3') using an electromagnetic radiation signal; b) selecting, by a user, one of the one or more lighting devices (3, 3') to be joined to a network and paired with a remote control device by the user directing a directional beam of electromagnetic radiation from a directional beam emitter onto a sensor of the selected lighting device; c) in response to receipt by the selected lighting device (3, 3') of the directional beam of electromagnetic radiation and of the joining code, transmitting the joining code from the selected lighting device (3, 3') to a network controller, comparing, at the network controller, the joining code with one or more access codes for the network, and, if the received joining code matches an access code of said one or more access codes for the network, joining the selected lighting device (3, 3') to the network; and d) pairing the joined selected lighting device (3, 3') with the remote control device such that the joined selected lighting device (3, 3') is controllable, on the network, by the remote control device.