mhurhangee/ep-ind-claims huggingface dataset:
A system for providing a Diameter network architecture for responding to actual or predicted network conditions, the system comprising: a network event listener configured to receive information about network events and based on the information to generate a real time or predictive view of network conditions; and a policy directed software defined network, SDN, controller configured to, based on the real time or predictive view of network conditions, issue SDN commands, wherein the SDN commands include OpenFlow commands, to route Internet protocol, IP, network flows to needed network elements and to instruct dynamically configurable network elements instantiate Diameter resource instances or to allocate hardware among existing Diameter resource instances, wherein the Diameter resource instances include Diameter signaling router, DSR, resource instances. a network event listener configured to receive information about network events and based on the information to generate a real time or predictive view of network conditions; and a policy directed software defined network, SDN, controller configured to, based on the real time or predictive view of network conditions, issue SDN commands, wherein the SDN commands include OpenFlow commands, to route Internet protocol, IP, network flows to needed network elements and to instruct dynamically configurable network elements instantiate Diameter resource instances or to allocate hardware among existing Diameter resource instances, wherein the Diameter resource instances include Diameter signaling router, DSR, resource instances.
A method for preparing a viscose fiber, characterized in that the method comprises: adding a graphene with no more than 10 layers to a viscose or a semi-finished viscose product, wherein the graphene added is a non-oxidized graphene, wherein the graphene is prepared through a method comprising: 1) hydrolyzing corncobs in an inorganic acidic aqueous solution to afford lignocelluloses; 2) treating the lignocelluloses with a treatment agent at 70 °C-180 °C, to provide porous celluloses, wherein the used treatment agent is an acid, acid-sulfite, or alkali-sulfite; 3) treating the porous celluloses with a catalyst selected from the group consisting of ferric chloride, ferrous chloride, ferric nitrate, ferrous nitrate, ferric sulfate, ferrous sulfate, potassium ferricyanide, potassium ferrocyanide, potassium trioxalatoferrate, cobalt chloride, cobalt nitrate, cobalt sulfate, cobalt acetate, nickel chloride, nickel nitrate, nickel sulfate, and nickel acetate, wherein a processing temperature is 50 °C-150 °C; 4) in an oxygen-free environment, placing the porous celluloses obtained in the previous step successively at 300 °C-400 °C, 800 °C-900 °C, 1100 °C-1300 °C, 300 °C-400 °C, and 900 °C-1000 °C for thermal insulation to provide a graphene precursor; 5) washing the graphene precursor with alkali, acid, and water respectively to afford the final product graphene. 1) hydrolyzing corncobs in an inorganic acidic aqueous solution to afford lignocelluloses; 2) treating the lignocelluloses with a treatment agent at 70 °C-180 °C, to provide porous celluloses, wherein the used treatment agent is an acid, acid-sulfite, or alkali-sulfite; 3) treating the porous celluloses with a catalyst selected from the group consisting of ferric chloride, ferrous chloride, ferric nitrate, ferrous nitrate, ferric sulfate, ferrous sulfate, potassium ferricyanide, potassium ferrocyanide, potassium trioxalatoferrate, cobalt chloride, cobalt nitrate, cobalt sulfate, cobalt acetate, nickel chloride, nickel nitrate, nickel sulfate, and nickel acetate, wherein a processing temperature is 50 °C-150 °C; 4) in an oxygen-free environment, placing the porous celluloses obtained in the previous step successively at 300 °C-400 °C, 800 °C-900 °C, 1100 °C-1300 °C, 300 °C-400 °C, and 900 °C-1000 °C for thermal insulation to provide a graphene precursor; 5) washing the graphene precursor with alkali, acid, and water respectively to afford the final product graphene.
A method for bonding a first substrate with a second substrate at contact surfaces of the substrates (4o, 4u) facing one another, wherein the first substrate is mounted on a first mounting device and the second substrate is mounted on a second mounting device, wherein the second mounting device comprises a plate and wherein the plate is arranged between the second substrate and a surface of the second mounting device, characterised in that the second substrate with the plate is deformed with respect to the second mounting device before and/or during the bonding, wherein the second substrate is deformed by a deformation of the plate, wherein the plate is fixed by a fixing means arranged at the periphery of the mounting device (1o, 1u).
Device for detection of infrared radiation comprising: - a detection circuit configured to detect said infrared radiation and provided with at least one photodetector, - a readout circuit electrically connected to the detection circuit and configured to process the electrical signal emitted by the detection circuit, - a Joule-Thomson cooler fitted with ∘ a cold table connected thermally and mechanically to the detection circuit and the readout circuit to cool the detection circuit and the readout circuit, the cold table comprising an internal cavity, ∘ a relief port arranged at an input of the internal cavity to cool the cold table, characterised in that the inner wall of the internal cavity is textured in the vicinity of the detection circuit to form an evaporator in thermal contact with the detection circuit, the evaporator achieving a phase change of the gas from a liquid phase to a gaseous phase and in that the Joule-Thomson cooler comprises a compressor with an outlet supplying the relief port with gas and an input receiving said relaxed gas from an output of the internal cavity. - a detection circuit configured to detect said infrared radiation and provided with at least one photodetector, - a readout circuit electrically connected to the detection circuit and configured to process the electrical signal emitted by the detection circuit, - a Joule-Thomson cooler fitted with ∘ a cold table connected thermally and mechanically to the detection circuit and the readout circuit to cool the detection circuit and the readout circuit, the cold table comprising an internal cavity, ∘ a relief port arranged at an input of the internal cavity to cool the cold table, characterised in that the inner wall of the internal cavity is textured in the vicinity of the detection circuit to form an evaporator in thermal contact with the detection circuit, the evaporator achieving a phase change of the gas from a liquid phase to a gaseous phase and in that the Joule-Thomson cooler comprises a compressor with an outlet supplying the relief port with gas and an input receiving said relaxed gas from an output of the internal cavity. ∘ a cold table connected thermally and mechanically to the detection circuit and the readout circuit to cool the detection circuit and the readout circuit, the cold table comprising an internal cavity, ∘ a relief port arranged at an input of the internal cavity to cool the cold table,
A method for identifying multiple fetal polymorphisms in a fetal genome of a blood sample obtained from a pregnant woman comprising a mixture of cfDNA of a fetal genome and a maternal genome, said method comprising: (a) whole genome sequencing at least a portion of said mixture of cfDNA, thereby obtaining a plurality of sequence tags, wherein said mixture is unenriched for said multiple polymorphisms; (b) comparing the sequences of said plurality of sequence tags to the sequences of multiple reference polymorphisms, to identify sequence tags mapped to each of said multiple reference polymorphisms; (c) counting the number of sequence tags mapped to each of said multiple reference polymorphisms, and thereby identifying said multiple polymorphisms in said fetal and maternal genome of said mixture, wherein said multiple polymorphisms in said fetal and maternal genome of said mixture are identified by the sequences of the tags mapped to said multiple reference polymorphisms; and (d) associating the multiple polymorphisms identified in step (c) with said fetal and maternal genome, thereby identifying said multiple polymorphisms in said fetal genome of said mixture, wherein the polymorphic sequences contributed by the fetal genome to the mixture of fetal and maternal nucleic acids in the maternal sample are identified by their relative minor contribution to the mixture when compared to the major contribution to the mixture by the maternal nucleic acids, and wherein the identification of polymorphic sequences contributed by the fetal genome to the mixture is performed without genotyping the maternal alleles in a maternal sample that is substantially free of fetal nucleic acids. (a) whole genome sequencing at least a portion of said mixture of cfDNA, thereby obtaining a plurality of sequence tags, wherein said mixture is unenriched for said multiple polymorphisms; (b) comparing the sequences of said plurality of sequence tags to the sequences of multiple reference polymorphisms, to identify sequence tags mapped to each of said multiple reference polymorphisms; (c) counting the number of sequence tags mapped to each of said multiple reference polymorphisms, and thereby identifying said multiple polymorphisms in said fetal and maternal genome of said mixture, wherein said multiple polymorphisms in said fetal and maternal genome of said mixture are identified by the sequences of the tags mapped to said multiple reference polymorphisms; and (d) associating the multiple polymorphisms identified in step (c) with said fetal and maternal genome, thereby identifying said multiple polymorphisms in said fetal genome of said mixture, wherein the polymorphic sequences contributed by the fetal genome to the mixture of fetal and maternal nucleic acids in the maternal sample are identified by their relative minor contribution to the mixture when compared to the major contribution to the mixture by the maternal nucleic acids, and wherein the identification of polymorphic sequences contributed by the fetal genome to the mixture is performed without genotyping the maternal alleles in a maternal sample that is substantially free of fetal nucleic acids.
An overload-releasable connector which fits complementarily in a connector holder, the connector including a locking-dog casing which is connected to a load attachment, and being formed with at least one locking dog which is radially movable between a pushed-in or swung-in passive position and a pushed-out or swung-out active position, the locking dog fitting complementarily in the connector holder, and the connector being provided with a blocking body which is movable between a blocking position, in which the blocking body prevents the locking dog from being moved out of its locking position, and a free position, in which the locking dog is free to be moved away from its locking position, whereby the load attachment is axially movable relative to the locking-dog casing, characterized in that said load attachment is locked to the locking-dog casing by means of a shear pin.
A knee airbag for a motor vehicle, comprised of an airbag connected to a gas generator and extending in an inflated state along a longitudinal direction from a rear end, connectable to a part fixed with respect to the vehicle, to a free end faceable towards a vehicle occupant, wherein the inflated airbag is divided into a plurality of chambers by separating walls extending perpendicular to the longitudinal direction, and in an inflated state assumes a banana-shaped curved design, the outer surface of which, which is faceable towards the vehicle occupant, is curved with a greater radius than that of its opposing surface which is faceable towards the vehicle part, characterised in that in the interior of the airbag at least one filling hose connected to the gas generator and extending in the longitudinal direction of the airbag and here penetrating the separating walls is disposed with a banana-shaped design in the inflated state, in the wall of which filling hose at least one outlet opening is disposed in the region of each individual chamber of the airbag struck by the filling hose.
A belt scraper assembly for belt conveyors comprising at least a blade assembly and at least a hinge assembly, said blade assembly being operatively connected to said hinge assembly which is adapted to ensure limited rotational motion of said blade assembly, characterized in that the belt scraper assembly comprises at least a blade assembly and at least a hinge assembly mounted on either side of a supporting flexible member for facilitating twin blade cleaning.
Vertical take-off and landing aerodyne, of the type known as VTOL, comprising: - a supporting structure, to which are structurally connected: - at least one supporting axial blower, with an axis of rotation that is substantially vertical and fixed relative to said supporting structure, and capable of ensuring the lift-generation of the aerodyne, - at least one motor-lift unit, comprising at least one main drive motor of said supporting blower, - at least three attitude blowers, capable of controlling the attitude of the aerodyne in terms of roll and pitch, each attitude blower being a blower with an electrical motor, - each attitude blower being attached, respectively, to one of a plurality of elongate arms that are distributed in a laterally, outwardly projecting manner around said supporting structure, to which each arm is connected by an end portion called inner, so that the axis of rotation of each attitude blower is fixed relative to said supporting structure, and that all the attitude blowers are located outside the space centrally occupied by said supporting blower, - at least one battery for supplying power to the electrical motors of the attitude blowers, - a landing gear, attached under said supporting structure, and - at least one nacelle, capable of holding a payload and/or said battery, characterized in that yaw control flaps, the angle of attack of which can be adjusted, are supported by at least one of the arms supporting the attitude blowers, and preferably by the supporting arm(s) oriented parallel to the direction of movement of the aerodyne. - a supporting structure, to which are structurally connected: - at least one supporting axial blower, with an axis of rotation that is substantially vertical and fixed relative to said supporting structure, and capable of ensuring the lift-generation of the aerodyne, - at least one motor-lift unit, comprising at least one main drive motor of said supporting blower, - at least three attitude blowers, capable of controlling the attitude of the aerodyne in terms of roll and pitch, each attitude blower being a blower with an electrical motor, - each attitude blower being attached, respectively, to one of a plurality of elongate arms that are distributed in a laterally, outwardly projecting manner around said supporting structure, to which each arm is connected by an end portion called inner, so that the axis of rotation of each attitude blower is fixed relative to said supporting structure, and that all the attitude blowers are located outside the space centrally occupied by said supporting blower, - at least one battery for supplying power to the electrical motors of the attitude blowers, - a landing gear, attached under said supporting structure, and - at least one nacelle, capable of holding a payload and/or said battery,
A water-absorbent resin composition being characterized in that the composition comprises: a polycarboxylate-based water-absorbent resin as a primary component, the resin having a crosslinked structure formed by polymerization of an acid group-containing unsaturated monomer; and multivalent metal cations, wherein: the multivalent metal cations other than Fe cations account for 0.001 to 1 mass% of the water-absorbent resin; the ratio of the Fe cations to the multivalent metal cations other than the Fe cations is less than or equal to 5.00 mass%; and the Fe cations account for 0.01 to 50 ppm of the water-absorbent resin. a polycarboxylate-based water-absorbent resin as a primary component, the resin having a crosslinked structure formed by polymerization of an acid group-containing unsaturated monomer; and multivalent metal cations, wherein: the multivalent metal cations other than Fe cations account for 0.001 to 1 mass% of the water-absorbent resin; the ratio of the Fe cations to the multivalent metal cations other than the Fe cations is less than or equal to 5.00 mass%; and the Fe cations account for 0.01 to 50 ppm of the water-absorbent resin. the multivalent metal cations other than Fe cations account for 0.001 to 1 mass% of the water-absorbent resin; the ratio of the Fe cations to the multivalent metal cations other than the Fe cations is less than or equal to 5.00 mass%; and the Fe cations account for 0.01 to 50 ppm of the water-absorbent resin.
A method comprising: using a page table entry dirty bit recording system for dirty recording in a software distributed shared memory system, using a first bit to indicate that a page table entry is dirty; the method being characterized by further: providing a first extra bit for a virtual shared memory page to keep track of whether data is dirty for the software distributed shared memory system; and providing a second extra bit for a virtual shared memory page to keep track of whether data is dirty for an operating system; wherein clearing the first bit by the operating system comprises backing up the first bit to the first extra bit, and clearing the second extra bit and the first bit; and wherein clearing the first bit by the software distributed shared memory system comprises backing up the first bit to the second extra bit, and clearing the first extra bit and the first bit. using a page table entry dirty bit recording system for dirty recording in a software distributed shared memory system, using a first bit to indicate that a page table entry is dirty; the method being characterized by further: providing a first extra bit for a virtual shared memory page to keep track of whether data is dirty for the software distributed shared memory system; and providing a second extra bit for a virtual shared memory page to keep track of whether data is dirty for an operating system; wherein clearing the first bit by the operating system comprises backing up the first bit to the first extra bit, and clearing the second extra bit and the first bit; and wherein clearing the first bit by the software distributed shared memory system comprises backing up the first bit to the second extra bit, and clearing the first extra bit and the first bit. providing a first extra bit for a virtual shared memory page to keep track of whether data is dirty for the software distributed shared memory system; and providing a second extra bit for a virtual shared memory page to keep track of whether data is dirty for an operating system; wherein clearing the first bit by the operating system comprises backing up the first bit to the first extra bit, and clearing the second extra bit and the first bit; and wherein clearing the first bit by the software distributed shared memory system comprises backing up the first bit to the second extra bit, and clearing the first extra bit and the first bit.
A radiation therapy apparatus, comprising: a treatment bed moving a top plate with an object to be treated (Pt) placed on the top plate to a predetermined treatment location; an imaging apparatus moving to the predetermined treatment location from a direction different from the direction of movement of the top plate and picking up an image of the object to be treated (Pt); and an irradiation apparatus provided between the treatment bed and the imaging apparatus, extensible, and applying a radioactive ray to the object to be treated (Pt), wherein the irradiation apparatus retracts to a predetermined waiting position when the imaging apparatus moves to the predetermined treatment location, and moves to a predetermined irradiation position when applying a radioactive ray to the object to be treated (Pt), characterized in that the irradiation apparatus is kept in a vacuum and extends or retracts a nozzle portion, which is extensible in the axial direction of the nozzle portion, applying a radioactive ray, thereby moving the nozzle portion between the predetermined waiting position and the predetermined irradiation position, and wherein the nozzle portion includes an extensible bellows pipe and equipment for monitoring and adjusting a radioactive ray, provided at the tip of the bellows pipe or, wherein the nozzle portion includes an unextensible single pipe and equipment for monitoring and adjusting a radioactive ray, provided on the tip side of the single pipe with a spacing in between, and movable between the predetermined waiting position and the predetermined irradiation position. an imaging apparatus moving to the predetermined treatment location from a direction different from the direction of movement of the top plate and picking up an image of the object to be treated (Pt); and an irradiation apparatus provided between the treatment bed and the imaging apparatus, extensible, and applying a radioactive ray to the object to be treated (Pt), wherein the irradiation apparatus retracts to a predetermined waiting position when the imaging apparatus moves to the predetermined treatment location, and moves to a predetermined irradiation position when applying a radioactive ray to the object to be treated (Pt), characterized in that the irradiation apparatus is kept in a vacuum and extends or retracts a nozzle portion, which is extensible in the axial direction of the nozzle portion, applying a radioactive ray, thereby moving the nozzle portion between the predetermined waiting position and the predetermined irradiation position, and wherein the nozzle portion includes an extensible bellows pipe and equipment for monitoring and adjusting a radioactive ray, provided at the tip of the bellows pipe or, wherein the nozzle portion includes an unextensible single pipe and equipment for monitoring and adjusting a radioactive ray, provided on the tip side of the single pipe with a spacing in between, and movable between the predetermined waiting position and the predetermined irradiation position.
An apparatus for supporting vertically-oriented exhaust components on a vehicle, comprising: a base mountable on a vehicle frame; a plurality of rods fixed to the base and extending upward therefrom, when the base is mounted on the vehicle frame, the rods arranged on a perimeter surrounding and defining an exhaust component mounting position; and, means for interconnecting the plurality of rods to an exhaust component, characterized in that: the base includes a horizontal support, when the base is mounted on the vehicle frame, having a central aperture, the plurality of rods being fixed to the horizontal support about the aperture. a base mountable on a vehicle frame; a plurality of rods fixed to the base and extending upward therefrom, when the base is mounted on the vehicle frame, the rods arranged on a perimeter surrounding and defining an exhaust component mounting position; and, means for interconnecting the plurality of rods to an exhaust component,