mhurhangee/ep-ind-claims huggingface dataset:
A urethane-type polymer obtained by a reaction of: a monohydroxy compound represented by Formula, wherein R 1 is an aliphatic hydrocarbon group having 24 to 36 carbon atoms, and m represents a number ranging from 0 to 1000; a polyethylene glycol represented by Formula, wherein n represents a number ranging from 2 to 1000; a monoglyceryl ether compound represented by Formula, wherein R 2 represents an aliphatic hydrocarbon group having 5 to 12 carbon atoms; and an isocyanate compound represented by Formula, wherein R 3 represents a hydrocarbon group having 4 to 13 carbon atoms, and q represents the number 2 or 3. a monohydroxy compound represented by Formula, wherein R 1 is an aliphatic hydrocarbon group having 24 to 36 carbon atoms, and m represents a number ranging from 0 to 1000; a polyethylene glycol represented by Formula, wherein n represents a number ranging from 2 to 1000; a monoglyceryl ether compound represented by Formula, wherein R 2 represents an aliphatic hydrocarbon group having 5 to 12 carbon atoms; and an isocyanate compound represented by Formula, wherein R 3 represents a hydrocarbon group having 4 to 13 carbon atoms, and q represents the number 2 or 3.
A method for re-establishing or tending to reestablish a symmetrical distribution of temperatures between the right-hand and left-hand sides of the cross section of a flow of molten glass that has been routed in a feeder including at least one bend area, thermal asymmetry having been induced by flowing round a bend, the feeder comprising: - a flow channel formed from refractory and insulative material elements and constituted of a horizontal sole plate and two lateral walls (8b; 8c); and - a vault capping the channel, formed of a refractory roof and lateral parts equipped with burners, characterized in that, in the area of the or each bend, the flow channel is modified by choosing a corresponding inclined sole plate portion, the inclination being chosen so that the flow channel is deeper in the outside region of the bend than in its inside region, the heights of the two lateral walls (8b; 8c) of the channel being modified accordingly. - a flow channel formed from refractory and insulative material elements and constituted of a horizontal sole plate and two lateral walls (8b; 8c); and - a vault capping the channel, formed of a refractory roof and lateral parts equipped with burners,
A method for separating particles by size, the method comprising: flowing larger particles and smaller particles in a flow stream in a line-driven capillary located just prior to a sample inlet of a flow cytometer; directing radial acoustic radiation pressure to the flow stream to transport the larger particles that are cells to a central axis of the flow stream while the smaller particles that are cellular debris remain unaffected such that the smaller particles remain randomly distributed, said radial acoustic radiation pressure providing an acoustic force large enough to overcome the Brownian motion of the larger particles, thereby acoustically separating the particles (30, 34) by size; and feeding a central core of the flow stream comprising the larger particles of the separated particles into a flow cytometer. flowing larger particles and smaller particles in a flow stream in a line-driven capillary located just prior to a sample inlet of a flow cytometer; directing radial acoustic radiation pressure to the flow stream to transport the larger particles that are cells to a central axis of the flow stream while the smaller particles that are cellular debris remain unaffected such that the smaller particles remain randomly distributed, said radial acoustic radiation pressure providing an acoustic force large enough to overcome the Brownian motion of the larger particles, thereby acoustically separating the particles (30, 34) by size; and feeding a central core of the flow stream comprising the larger particles of the separated particles into a flow cytometer.
A soft open point, SOP, for an AC electricity distribution network comprising a first and second voltage source converters (12, 14), VSCs, and a DC link connecting the two VSCs, wherein: in a power control mode, each VSC (12, 14) is configured to apply voltage corrections to a respective AC feeder (18, 20) of an AC electricity distribution network while the AC feeders are operating normally; characterised in that: the first VSC (12, 14) is configured to, when a first AC feeder (18, 20) connected to the first VSC is faulty, operate in a diagnostic mode to apply a diagnostic AC voltage to the first AC feeder (18, 20) and make current and voltage measurements at the connection of the first VSC to the first AC feeder while the diagnostic AC voltage is being applied, wherein the diagnostic mode is used to continuously determine whether the fault remains present; and in the diagnostic mode, if the fault resolves itself within a pre-defined duration, then the first VSC (12, 14) changes operational state to the power control mode. the first VSC (12, 14) is configured to, when a first AC feeder (18, 20) connected to the first VSC is faulty, operate in a diagnostic mode to apply a diagnostic AC voltage to the first AC feeder (18, 20) and make current and voltage measurements at the connection of the first VSC to the first AC feeder while the diagnostic AC voltage is being applied, wherein the diagnostic mode is used to continuously determine whether the fault remains present; and in the diagnostic mode, if the fault resolves itself within a pre-defined duration, then the first VSC (12, 14) changes operational state to the power control mode.
A three dimensional printing apparatus, comprising: a printing module, comprising: a melting nozzle, configured to melt a first forming material having a first color and a second forming material having a second color; and a feeding module, configured to feed the first forming material and the second forming material to the melting nozzle in a filament-extruding period; and characterized in that said three dimensional printing apparatus further comprises: a controller, coupled to the printing module, and configured to: determine a first pulling-back amount and a second pulling-back amount according to a first feeding-in ratio of the first forming material and a second feeding-in ratio of the second forming material in a filament-extruding suspending period of the printing module; control the feeding module to pull pack the first forming material according to the first pulling-back amount along a direction which is departing from the melting nozzle in the filament-extruding suspending period, and control the feeding module to pull pack the second forming material according to the second pulling-back amount along the direction which is departing from the melting nozzle in the filament-extruding suspending period, wherein a sum of the first feeding-in ratio and the second feeding-in ratio satisfies a preset percent, wherein said first feeding-in ratio is the ratio of the feeding-in amount of the first forming material to an overall feeding-in amount of the melting nozzle and said second feeding-in amount is the ratio of the feeding-in amount of the second forming material to the overall feeding-in amount of the melting nozzle. a melting nozzle, configured to melt a first forming material having a first color and a second forming material having a second color; and a feeding module, configured to feed the first forming material and the second forming material to the melting nozzle in a filament-extruding period; and
Method for validating programmed sequences of operations or teach programs of a robot with a robot controller, wherein the robot is mounted on or next to an injection-molding machine and is used for the removal, handling, manipulation or further processing of injection-molded parts which have just been produced, wherein traversing parameters, equipment features and functionalities of the physical robot are stored on the controller side in a configuration file and the robot controller creates a virtual robot model from these stored data and accesses the current teach program in the robot controller in order to validate a workflow sequence, wherein the visualization of the workflow sequence is displayed directly on an output unit of the robot controller, wherein the virtual robot model is decoupled from the physical robot in any command line of the teach program and is used for validating certain commands and subsequences in the teach program for potential collisions or misbehavior, wherein the virtual robot follows the physical robot in the coupled state and upon decoupling this synchronization between virtual and physical robot is stopped, wherein the coupled physical robot executes the current program sequence up to a possible collision situation and only then switching over to the virtual robot model with simulation of dangerous states takes place, wherein the virtual robot is coupled again with the physical robot at any time after decoupling and is reset to the initial state in order to subsequently validate further subsequences of the teach program.
An offshore floating facility for oil and gas well drilling, evaluation, completion, improvement, maintenance, intervention and/or production, comprising: a semisubmersible vessel or a monohull vessel having a vertical opening referred to as a moonpool, wherein the vessel has bulkhead (250a-250d) and deck structures, and wherein the vessel has an upper drilling deck that surrounds the moonpool; a drilling derrick with a primary operating device that may be positioned and/or secured to the drilling deck over the moonpool; mooring lines attached to the vessel for anchoring the vessel; and a wellbay assembly located at least partially in the moonpool, characterised in that the wellbay assembly is configured to be movable at least for aligning a top end of first one riser of a set of two or more risers (90a-90c) and then a different riser of the set of risers (90a-90c) below the drilling derrick, wherein the wellbay assembly has at least two sets of riser tensioners (60a, 60b) in an array of structurally distinct slots, and wherein each riser tensioner set (60a, 60b) is designed and built to hold the risers (90a-90c) in tension. a semisubmersible vessel or a monohull vessel having a vertical opening referred to as a moonpool, wherein the vessel has bulkhead (250a-250d) and deck structures, and wherein the vessel has an upper drilling deck that surrounds the moonpool; a drilling derrick with a primary operating device that may be positioned and/or secured to the drilling deck over the moonpool; mooring lines attached to the vessel for anchoring the vessel; and a wellbay assembly located at least partially in the moonpool, characterised in that
Fairground ride passenger unit comprising a passenger space and a passenger restraint device, wherein the passenger restraint device comprises a position-adjustable restraint element and a lockable hydraulic adjuster acting thereon, which in turn comprises a cylinder-piston unit and a hydraulic accumulator, characterized in that the hydraulic accumulator and the cylinder-piston unit form a structural unit in that the cylinder of the cylinder-piston unit and a cylinder of the hydraulic accumulator which is arranged next to and parallel to the cylinder of the cylinder-piston unit are part of an integrated cylinder assembly which comprises a common closure cover (24, 25) on both end faces respectively.
A thermally-insulating composite elevation panel, characterised in that it comprises an elevation board and a frame for supporting and attaching the panel to a building wall, preferably a metal one, which are permanently connected to each other through an insulating layer between them, the insulating layer being constituted by a plastic foam which, during its foaming process, permanently connects the elevation panel with the frame, wherein the plastic foam is composed of a polystyrene polyurethane foam, PSUR, wherein PSUR is a composite material composed of a mixture of two plastic materials: rigid polyurethane foam and expanded polystyrene.
Water-control structure, comprising a control structure body which is exposed, at least on one side (10, 11), to the effects of a body of water, and adjacent cladding elements which cover the control structure body and which each comprise a base, and adjacent bases of the cladding elements between themselves define passages for allowing water through, wherein the adjacent cladding have projections, wherein the cladding elements are covered by a covering layer which is provided between and above the projections, characterized in that the sides of the base are convexly curved and adjoin one another via an obtuse internal angle, in that the cladding elements have one and only one free projection which is upright with respect to the base, in that each projection is situated at a distance from every other projection and does not touch any other projection and in that the projections are each embedded in the covering layer around the entire periphery thereof.
A process for recovering an acetylenic agent from a solution of the acetylenic agent, wherein the acetylenic agent comprises an acetylenic compound or a co-precipitated mixture of acetylenic compounds selected from the group consisting of 2,4-hexadiyn-1,6-bis(ethylurea) and 2,4-hexadiyn-1,6-bis(propylurea), the process comprising: precipitating the acetylenic agent by mixing a warm solution of the acetylenic agent with a cold precipitation fluid, the cold precipitation fluid being substantially a non-solvent for the acetylenic agent during the precipitation process and being miscible with the acetylenic agent solution to precipitate particles of the acetylenic agent from the resultant precipitation mixture; and collecting the precipitated acetylenic agent wherein at least one particle size parameter of the precipitated acetylenic agent is controlled selecting at least one constituent of the cold precipitation fluid; wherein the cold precipitation fluid comprises a precipitation additive and methanol, ethyl 3-ethoxypropionate, dimethyl formamide, or a methanol/water mixture; wherein the precipitation additive is nitrocellulose, an acrylate copolymer, octylphenol polyethylene glycol ether or gelatin; and wherein the precipitation mixture is maintained at a temperature of from above -10°C to 60°C throughout the precipitation, wherein the acetylenic agent is dissolved in glacial acetic acid, propionic acid, dimethyl formamide, dimethyl sulfoxide or a mixture of any two or more of the foregoing solvents. precipitating the acetylenic agent by mixing a warm solution of the acetylenic agent with a cold precipitation fluid, the cold precipitation fluid being substantially a non-solvent for the acetylenic agent during the precipitation process and being miscible with the acetylenic agent solution to precipitate particles of the acetylenic agent from the resultant precipitation mixture; and collecting the precipitated acetylenic agent wherein at least one particle size parameter of the precipitated acetylenic agent is controlled selecting at least one constituent of the cold precipitation fluid; wherein the cold precipitation fluid comprises a precipitation additive and methanol, ethyl 3-ethoxypropionate, dimethyl formamide, or a methanol/water mixture; wherein the precipitation additive is nitrocellulose, an acrylate copolymer, octylphenol polyethylene glycol ether or gelatin; and wherein the precipitation mixture is maintained at a temperature of from above -10°C to 60°C throughout the precipitation, wherein the acetylenic agent is dissolved in glacial acetic acid, propionic acid, dimethyl formamide, dimethyl sulfoxide or a mixture of any two or more of the foregoing solvents.
A method of predicting a region-specific cerebral cortical contraction rate on basis of a computed tomography image, the method comprising: a deep learning step of training a deep learning network, by selecting and using CT images of a plurality of patients and segmentation information, about a correlation between the CT images and the segmentation information; a feature extraction step of extracting, on basis of each segmentation information, semantic feature information corresponding to each of the CT images; a machine learning step of additionally obtaining a region-specific cerebral cortical contraction rate corresponding to each semantic feature information and then training a machine learning model about a correlation between the semantic feature information and the region-specific cerebral cortical contract rate; a segmentation step of, when an image to be analyzed is input, obtaining segmentation information corresponding to the image to be analyzed through the deep learning network; and a prediction step of extracting semantic feature information corresponding to the image to be analyzed on basis of the segmentation information and then predicting and notifying a region-specific cerebral cortical contraction rate corresponding to the semantic feature information through the machine learning model.
A blade angle feedback ring assembly for an aircraft propeller rotatable about a longitudinal axis and having an adjustable blade angle, the assembly comprising: a feedback ring for coupling to the propeller to rotate with the propeller and to move along the longitudinal axis with adjustment of the blade angle; and a plurality of rods coupled to the feedback ring and extending along a direction substantially parallel to the longitudinal axis, the plurality of rods configured to support the feedback ring for longitudinal sliding movement along the longitudinal axis with adjustment of the blade angle, characterised in that: the assembly comprises at least one shielding element configured to shield the feedback ring from electromagnetism, wherein the at least one shielding element comprises at least one of: the plurality of rods being made from a non-conductive material; the feedback ring being made from a non-conductive material, Mu metal, electrical Z f steel or ferrite ceramics; and a plurality of threaded inserts being made from a non-conductive material, wherein the feedback ring comprises the plurality of threaded inserts spaced around a circumference of the feedback ring and each configured to receive therein a given one of the plurality of rods. a feedback ring for coupling to the propeller to rotate with the propeller and to move along the longitudinal axis with adjustment of the blade angle; and a plurality of rods coupled to the feedback ring and extending along a direction substantially parallel to the longitudinal axis, the plurality of rods configured to support the feedback ring for longitudinal sliding movement along the longitudinal axis with adjustment of the blade angle, the plurality of rods being made from a non-conductive material; the feedback ring being made from a non-conductive material, Mu metal, electrical Z f steel or ferrite ceramics; and a plurality of threaded inserts being made from a non-conductive material, wherein the feedback ring comprises the plurality of threaded inserts spaced around a circumference of the feedback ring and each configured to receive therein a given one of the plurality of rods.
A combination of a connector (2, 8, 9) for glass elements (1, 3) and such glass elements to provide a loadbearing glass construction that comprises at least one glass post and at least one glass beam that are arranged adjacent to each other, wherein the connector (2, 8, 9) is arranged to provide a rotationally fixed connection between the post and the beam, and wherein at least along a part of their edges the glass elements (1, 3) comprise reinforcement elements and the connector (2, 8, 9) is connected to said reinforcement elements, characterized in that the connector (2, 8, 9) and the reinforcement elements are embodied with cooperating protrusions and receptacles.
A heat dissipation apparatus, comprising a base plate, a guide fin group, and a heat dissipation fin group, wherein the guide fin group is formed on a surface of the base plate, the guide fin group is disposed with at least two guide fins that are disposed at an interval, and the guide fins extend along the surface of the base plate from an edge of the base plate, and a flow path for flowing of an airflow is formed between two adjacent guide fins; and the heat dissipation fin group comprises at least one heat dissipation fin wherein the heat dissipation fin is fixedly connected to the top of the guide fins to dissipate heat of the guide fins, wherein a quantity of heat dissipation fin groups disposed for the heat dissipation apparatus corresponding to each guide fin group is at least two, and all heat dissipation fin groups disposed for a same guide fin group are sequentially arranged in an extension direction of the guide fins of the guide fin group, wherein in the heat dissipation fin groups disposed for a same guide fin group, a gap between the base plate and heat dissipation fins in a heat dissipation fin group that is disposed relatively near the edge of the base plate is greater than a gap between the base plate and heat dissipation fins in a heat dissipation fin group that is disposed relatively near the center of the base plate.
An intraluminal imaging device, comprising: a flexible elongate member configured for insertion into a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; and an imaging assembly comprising a flex circuit (214,314) disposed in a rolled configuration at the distal portion of the flexible elongate member, the flex circuit comprising a spine member and a plurality of rib members (320,322,324) extending from the spine member, wherein the plurality of rib members are longitudinally spaced apart from one another such that a longitudinal distance between the rib members can vary to allow the imaging assembly to flex/bend within vessels of the patient. a flexible elongate member configured for insertion into a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; and an imaging assembly comprising a flex circuit (214,314) disposed in a rolled configuration at the distal portion of the flexible elongate member, the flex circuit comprising a spine member and a plurality of rib members (320,322,324) extending from the spine member, wherein the plurality of rib members are longitudinally spaced apart from one another such that a longitudinal distance between the rib members can vary to allow the imaging assembly to flex/bend within vessels of the patient.
A method for producing graphite, comprising the steps of: introducing graphitizable material particulates having an average particle diameter of 3 to 30 mm into an inside of a vertical graphitization furnace from an upper part thereof, heating the graphitizable material particulates at 2200°C to 3200°C while making inert gas flow from a lower part toward an upper part thereof to graphitize the graphitizable material particulates, and removing obtained graphite through a lower part thereof, wherein the graphitizable material particulates are obtained by granulating a mixture comprising 100 parts by weight of graphitizable carbonaceous substance powder having an average particle diameter of 10 to 20 μm, 3 to 20 parts by weight of a binder evaporable or evaporable through decomposition at a temperature of lower than 1000°C, and 5 to 30 parts by weight of a solvent or a dispersant which can dissolve or disperse the binder. introducing graphitizable material particulates having an average particle diameter of 3 to 30 mm into an inside of a vertical graphitization furnace from an upper part thereof, heating the graphitizable material particulates at 2200°C to 3200°C while making inert gas flow from a lower part toward an upper part thereof to graphitize the graphitizable material particulates, and removing obtained graphite through a lower part thereof,