mhurhangee/ep-ind-claims huggingface dataset:
A management sub-system for managing a small cell network servicing a plurality of network operators, the system comprising: a controller in communication with a plurality of core networks (114a, 114b), wherein each of the plurality of core networks (114a, 114b) is operated by a separate network operator providing telecommunication services to terminal devices; and a plurality of baseband processing units (104a-c) in communication with the controller, wherein each of the plurality of baseband processing units (104a-c) is configured to process data plane data and control plane data from at least one respective core network (114a, 114b) of the plurality of core networks (114a, 114b) for distribution via a plurality of remote antenna units (108a-c) of the small cell network; characterized in that the controller is configured for providing a respective amount of capacity via the small cell network for each core network (114a, 114b) of the plurality of core networks (114a, 114b) based on a respective subset of the plurality of baseband processing units (104a-c) assigned to the corresponding core network (114a, 114b), wherein the controller is further configured to modify the allocation of capacity based on a schedule and/or a load experienced by each network operator using the small cell network; and that the controller is further configured to perform inter-cell interference coordination between signals communicated from the plurality of core networks (114a, 114b) over the plurality of remote antenna units (108a-c) to corresponding small cells (109a-c). a controller in communication with a plurality of core networks (114a, 114b), wherein each of the plurality of core networks (114a, 114b) is operated by a separate network operator providing telecommunication services to terminal devices; and a plurality of baseband processing units (104a-c) in communication with the controller, wherein each of the plurality of baseband processing units (104a-c) is configured to process data plane data and control plane data from at least one respective core network (114a, 114b) of the plurality of core networks (114a, 114b) for distribution via a plurality of remote antenna units (108a-c) of the small cell network; characterized in that the controller is configured for providing a respective amount of capacity via the small cell network for each core network (114a, 114b) of the plurality of core networks (114a, 114b) based on a respective subset of the plurality of baseband processing units (104a-c) assigned to the corresponding core network (114a, 114b), wherein the controller is further configured to modify the allocation of capacity based on a schedule and/or a load experienced by each network operator using the small cell network; and that the controller is further configured to perform inter-cell interference coordination between signals communicated from the plurality of core networks (114a, 114b) over the plurality of remote antenna units (108a-c) to corresponding small cells (109a-c).
An assembly for storing sample processing consumables, comprising: a cover defining a cover cavity and comprising a panel and a cover wall extending from a perimeter of the panel, the cover wall comprising a first cover surface; and a tray defining a first plurality of wells and comprising a first portion received within the cover cavity such that a press fit is formed between a first tray surface of the first portion of the tray and the first cover surface of the cover defining the cover cavity, thereby releasably coupling the cover to the tray, wherein each of the first plurality of wells contains a sample processing consumable; wherein the cover is configured to be decoupled from the tray by applying a force against the panel of the cover, wherein the panel is configured to flex, to transfer the applied force to the tray, and to cause the tray to move relative to the cover to overcome the press fit, the panel being adjacent to a second tray surface of the tray defining openings of the first plurality of wells. a cover defining a cover cavity and comprising a panel and a cover wall extending from a perimeter of the panel, the cover wall comprising a first cover surface; and a tray defining a first plurality of wells and comprising a first portion received within the cover cavity such that a press fit is formed between a first tray surface of the first portion of the tray and the first cover surface of the cover defining the cover cavity, thereby releasably coupling the cover to the tray, wherein each of the first plurality of wells contains a sample processing consumable; wherein the cover is configured to be decoupled from the tray by applying a force against the panel of the cover, wherein the panel is configured to flex, to transfer the applied force to the tray, and to cause the tray to move relative to the cover to overcome the press fit, the panel being adjacent to a second tray surface of the tray defining openings of the first plurality of wells.
A cable fixation structure for fixing at least a portion of a fiber optic cable to a telecommunications fixture for strain relief, the structure comprising: a base portion configured to be mounted to the telecommunications fixture and a removable cable holder portion that is slidably inserted into the base portion, wherein the cable holder portion is configured for fixing the at least a portion of the fiber optic cable; wherein the base portion defines a slot for receiving the cable holder portion in an axial direction into the base portion, wherein the slot is configured to allow the cable holder portion to be slid in a direction that is transverse to the axial direction once the cable holder portion has been inserted into the base portion, wherein the cable fixation structure further comprises a door provided on the base portion to limit access to the cable holder portion, and wherein the door is pivotally coupled to the base portion and is pivotable about at least one pivot axis that is parallel to the axial insertion direction of the cable holder portion, characterised in that the door is pivotally openable in two different pivot directions, about two separate pivot axes that are both parallel to each other. a base portion configured to be mounted to the telecommunications fixture and a removable cable holder portion that is slidably inserted into the base portion, wherein the cable holder portion is configured for fixing the at least a portion of the fiber optic cable; wherein the base portion defines a slot for receiving the cable holder portion in an axial direction into the base portion, wherein the slot is configured to allow the cable holder portion to be slid in a direction that is transverse to the axial direction once the cable holder portion has been inserted into the base portion, wherein the cable fixation structure further comprises a door provided on the base portion to limit access to the cable holder portion, and wherein the door is pivotally coupled to the base portion and is pivotable about at least one pivot axis that is parallel to the axial insertion direction of the cable holder portion, characterised in that the door is pivotally openable in two different pivot directions, about two separate pivot axes that are both parallel to each other.
A method of modulating an optical carrier according to a constellation of symbols to carry a digital data stream (dds) formed of first segments of a same length and second segments, said method comprising: - for each one of the first segments, selecting a codeword of a constant composition code, the selected codeword having a value corresponding to a value of said one of the first segments, and - for each selected codeword, modulating a sequence of the symbols of the constellation onto the optical carrier based on one or more bits of the one of the second segments, each symbol of the sequence being located from a center of the constellation at a distance defined by a value of a corresponding letter of the selected codeword, wherein the modulating produces a phase- and amplitude modulated optical carrier. - for each one of the first segments, selecting a codeword of a constant composition code, the selected codeword having a value corresponding to a value of said one of the first segments, and - for each selected codeword, modulating a sequence of the symbols of the constellation onto the optical carrier based on one or more bits of the one of the second segments, each symbol of the sequence being located from a center of the constellation at a distance defined by a value of a corresponding letter of the selected codeword, wherein the modulating produces a phase- and amplitude modulated optical carrier.
A substantially purified or isolated nucleic acid or nucleic acid fragment, the nucleic acid or nucleic acid fragment encoding a MYC protein, or complementary or antisense to a sequence encoding a MYC protein, and including a nucleotide sequence selected from the group consisting of: (a) sequences shown in Sequence ID Nos: 46, 48, 49 and 50; (b) complements of the sequences recited in (a); (c) functionally active fragments of the sequences recited in (a) and (b) having a size of at least 60 nucleotides; and (e) functionally active variants having at least approximately 95% identity to the sequences recited in (a), (b) and (c). (a) sequences shown in Sequence ID Nos: 46, 48, 49 and 50; (b) complements of the sequences recited in (a); (c) functionally active fragments of the sequences recited in (a) and (b) having a size of at least 60 nucleotides; and (e) functionally active variants having at least approximately 95% identity to the sequences recited in (a), (b) and (c).
An optical planar antenna comprising: a linear waveguide within a substrate and having a fiber interface, the linear waveguide being configured to carry a one-dimensional optical signal; a planar waveguide within the substrate, the planar waveguide being configured to carry a two-dimensional optical signal; a first diffractive optical element configured to couple the linear waveguide to the planar waveguide; and a second diffractive optical element configured to couple the planar waveguide to free space. a linear waveguide within a substrate and having a fiber interface, the linear waveguide being configured to carry a one-dimensional optical signal; a planar waveguide within the substrate, the planar waveguide being configured to carry a two-dimensional optical signal; a first diffractive optical element configured to couple the linear waveguide to the planar waveguide; and a second diffractive optical element configured to couple the planar waveguide to free space.
A method of operating a gas turbine engine of an aircraft, the method comprising: receiving fuel; supplying a first portion of the fuel to a combustor of the gas turbine engine via a first fuel manifold; supplying a second portion of the fuel to the combustor of the gas turbine engine via a second fuel manifold; supplying a third portion of the fuel to a reservoir; stopping fuel supply to the combustor via the first and second fuel manifolds (34, 34B), the first fuel manifold containing first residual fuel and the second fuel manifold containing second residual fuel; and after stopping fuel supply to the combustor via the first and second fuel manifolds (34A, 34B): receiving the second residual fuel purged from the second fuel manifold into the reservoir; driving the third portion of the fuel out of the reservoir and using the third portion of the fuel to drive a Venturi pump; and using the Venturi pump to drive the first residual fuel in the first fuel manifold upstream and purge the first fuel manifold of the first residual fuel. receiving fuel; supplying a first portion of the fuel to a combustor of the gas turbine engine via a first fuel manifold; supplying a second portion of the fuel to the combustor of the gas turbine engine via a second fuel manifold; supplying a third portion of the fuel to a reservoir; stopping fuel supply to the combustor via the first and second fuel manifolds (34, 34B), the first fuel manifold containing first residual fuel and the second fuel manifold containing second residual fuel; and after stopping fuel supply to the combustor via the first and second fuel manifolds (34A, 34B): receiving the second residual fuel purged from the second fuel manifold into the reservoir; driving the third portion of the fuel out of the reservoir and using the third portion of the fuel to drive a Venturi pump; and using the Venturi pump to drive the first residual fuel in the first fuel manifold upstream and purge the first fuel manifold of the first residual fuel. receiving the second residual fuel purged from the second fuel manifold into the reservoir; driving the third portion of the fuel out of the reservoir and using the third portion of the fuel to drive a Venturi pump; and using the Venturi pump to drive the first residual fuel in the first fuel manifold upstream and purge the first fuel manifold of the first residual fuel.
A method in a serving BS in a collaborative multiple-input multiple-output, CO-MIMO, based wireless telecommunication network of controlling the serving BS to coordinate with at least one coordinating BS for downlink data communication with a MS, comprising: a. sending a measurement instruction to the MS, wherein the measurement instruction comprises aiding determining information for determining channel related information of each downlink channel between the serving BS and the MS, and between the at least one coordinating BS and the MS; b. receiving feedback information for the measurement instruction from the MS; c. obtaining downlink signal precoding information between the serving BS and the MS, and at least one downlink signal precoding information between the at least one coordinating BS and the MS, according to the feedback information for the measurement instruction; d. sending at least one coordinating request message corresponding to the at least one coordinating BS to the at least one coordinating BS, wherein the coordinating request message comprises downlink signal precoding information between the corresponding coordinating BS and the MS; g. transmitting, coordinately with the at least one coordinating BS, downlink signals precoded according to the downlink signal precoding information to the MS. a. sending a measurement instruction to the MS, wherein the measurement instruction comprises aiding determining information for determining channel related information of each downlink channel between the serving BS and the MS, and between the at least one coordinating BS and the MS; b. receiving feedback information for the measurement instruction from the MS; c. obtaining downlink signal precoding information between the serving BS and the MS, and at least one downlink signal precoding information between the at least one coordinating BS and the MS, according to the feedback information for the measurement instruction; d. sending at least one coordinating request message corresponding to the at least one coordinating BS to the at least one coordinating BS, wherein the coordinating request message comprises downlink signal precoding information between the corresponding coordinating BS and the MS; g. transmitting, coordinately with the at least one coordinating BS, downlink signals precoded according to the downlink signal precoding information to the MS.
A method performed by a server (215, 720, 815) for implementing a 3D map database, the method comprising: receiving one or more keyframes (240, 715) and associated metadata from a client (205, 705, 710, 805, 810, 905, 910, 915, 920); storing the received one or more keyframes (240, 715) in the 3D map database; tagging the received one or more keyframes (240, 715) in the 3D map database according to the received metadata; searching the 3D map database for 3D maps to stitch with the one or more keyframes (240, 715) and the associated metadata; stitching, according to the results of the search for 3D maps to stitch and a stitching processing schedule of the server (215, 720, 815), the one or more keyframes (240, 715) with one or more keyframes (240, 715) or 3D maps in the 3D map database, wherein the stitching is based on a background maintenance process independent from pending client requests; and storing the result of stitching the one or more keyframes (240, 715) as a 3D map tagged with at least some of the associated metadata; receiving a client request for map data; searching the 3D map database for map data according to the client request; providing, in response to the searching, a resulting map data to the client (205, 705, 710, 805, 810, 905, 910, 915, 920) requesting the map data, wherein the map data provides a fixed 3D map anchor point to enable synchronizing of the reference coordinate systems between multiple client maps. receiving one or more keyframes (240, 715) and associated metadata from a client (205, 705, 710, 805, 810, 905, 910, 915, 920); storing the received one or more keyframes (240, 715) in the 3D map database; tagging the received one or more keyframes (240, 715) in the 3D map database according to the received metadata; searching the 3D map database for 3D maps to stitch with the one or more keyframes (240, 715) and the associated metadata; stitching, according to the results of the search for 3D maps to stitch and a stitching processing schedule of the server (215, 720, 815), the one or more keyframes (240, 715) with one or more keyframes (240, 715) or 3D maps in the 3D map database, wherein the stitching is based on a background maintenance process independent from pending client requests; and storing the result of stitching the one or more keyframes (240, 715) as a 3D map tagged with at least some of the associated metadata; receiving a client request for map data; searching the 3D map database for map data according to the client request; providing, in response to the searching, a resulting map data to the client (205, 705, 710, 805, 810, 905, 910, 915, 920) requesting the map data, wherein the map data provides a fixed 3D map anchor point to enable synchronizing of the reference coordinate systems between multiple client maps.
An intraocular lens (10, 58, 62, 70, 78) of one-piece type comprising: an optical portion of generally circular shape in front view and including a lens zone having prescribed optical characteristics; and supporting portions (16, 60, 64, 72, 80) that extend radially outwardly from the optical portion, and that with the lens (10, 58, 62, 70, 78) inserted in an eye, are configured to be disposed in contact against an inside surface of an outer circumferential part of a capsule thereby holding the optical portion positioned within the capsule, each supporting portion (16, 60, 64, 72, 80) having a projecting distal end side and a basal end side, the optical portion and supporting portions (16, 60, 64, 72, 80) are integrally formed with a foldable or rollable soft material, characterized in that a viscous material is employed as the soft material, the supporting portions (16, 60, 64, 72, 80) have rough surface portions (38,56) with reduced viscosity at least at portions that are adapted to be superposed on the optical portion when the lens (10, 58, 62, 70, 78) is folded or rolled and inserted in to the eye, the supporting portions (16, 60, 64, 72, 80) have a reduced transparency by means of the rough surface portions (38, 56) in comparison with the optical portion, and the rough surface portions (38,56) are formed at least on the projecting distal end sides and basal end sides of the supporting portions (16, 60, 64, 72, 80). an optical portion of generally circular shape in front view and including a lens zone having prescribed optical characteristics; and supporting portions (16, 60, 64, 72, 80) that extend radially outwardly from the optical portion, and that with the lens (10, 58, 62, 70, 78) inserted in an eye, are configured to be disposed in contact against an inside surface of an outer circumferential part of a capsule thereby holding the optical portion positioned within the capsule, each supporting portion (16, 60, 64, 72, 80) having a projecting distal end side and a basal end side, the optical portion and supporting portions (16, 60, 64, 72, 80) are integrally formed with a foldable or rollable soft material, characterized in that a viscous material is employed as the soft material, the supporting portions (16, 60, 64, 72, 80) have rough surface portions (38,56) with reduced viscosity at least at portions that are adapted to be superposed on the optical portion when the lens (10, 58, 62, 70, 78) is folded or rolled and inserted in to the eye, the supporting portions (16, 60, 64, 72, 80) have a reduced transparency by means of the rough surface portions (38, 56) in comparison with the optical portion, and the rough surface portions (38,56) are formed at least on the projecting distal end sides and basal end sides of the supporting portions (16, 60, 64, 72, 80).
A system for enhancing manufacturing biomass-based products, the system comprising: - a dryer for receiving an airborne flow of fibres or biomass particles, - a binder applicator (102; 401) for applying a binder solution to an air-borne flow of fibres received from said dryer, - a forming station for producing a fibre or biomass mat from an airborne flow of fibres being applied with said binder solution and being received from said binder applicator (102, 401), characterized in that said system further comprises one or more of: - at least one ultrasound device adapted, during use, to apply ultrasound to the airborne flow of fibres after said binder solution has been applied and before said airborne flow of fibres is processed in said forming station, - at least one ultrasound device adapted, during use, to apply ultrasound to the airborne flow of fibres in said forming station in connection with the production of said fibre or biomass mat, and - at least one ultrasound device adapted, during use, to apply ultrasound to said fibre or biomass mat after it has been produced by said forming station. - a dryer for receiving an airborne flow of fibres or biomass particles, - a binder applicator (102; 401) for applying a binder solution to an air-borne flow of fibres received from said dryer, - a forming station for producing a fibre or biomass mat from an airborne flow of fibres being applied with said binder solution and being received from said binder applicator (102, 401), - at least one ultrasound device adapted, during use, to apply ultrasound to the airborne flow of fibres after said binder solution has been applied and before said airborne flow of fibres is processed in said forming station, - at least one ultrasound device adapted, during use, to apply ultrasound to the airborne flow of fibres in said forming station in connection with the production of said fibre or biomass mat, and - at least one ultrasound device adapted, during use, to apply ultrasound to said fibre or biomass mat after it has been produced by said forming station.
A gas separation apparatus which causes an absorbent to flow down along a surface of a packing arranged in a treatment chamber and supplies to the treatment chamber a gas to be treated containing a target gas component so that the absorbent flowing down along the surface of the packing and the gas to be treated are brought into gas-liquid contact, thereby the target gas component contained in the gas to be treated is absorbed in the absorbent to separate or recover from the gas to be treated, wherein the packing comprises at least one packing unit formed of a plurality of expanded metal plates standing vertically and being aligned, the plurality of expanded metal plates are formed in a rhomboidal mesh of strands which are inclined at an angle θ with respect to a vertical direction and the angle θ is 50 to 70°.