mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a cohesive carbon assembly, comprising: (a) obtaining a carbon starting material in the form of powder, particles, flakes, or loose agglomerates; (b) dispersing the carbon starting material in an organic solvent comprising one of toluene, o -dichlorobenzene (ODCB), isopropyl alcohol (IPA), N,N-dimethylformamide (DMF), benzene, chlorobenzene, m -dichlorobenzene, 1,2,4-trichlorobenzene, bromobenzene, m -dibromobenzene, o -dibromobenzene,, o -xylene, m -xylene, p -xylene, 1,2-dichloroethane, 1,2-dibromoethane, chloroform, formamide, N-methylformamide; N-vinylformamide; N-(phenethyl)formamide, N,N-diethylformamide, N,N-bis(1-methylethyl)formamide, and dimethyl sulfoxide, or any combinations thereof in a prescribed ratio of the carbon starting material to the organic solvent of between 0.015 to 200 mg carbon starting material per gram of organic solvent to form a dispersion, wherein the organic solvent is free of a polymer binding material; and (c) substantially removing the organic solvent in a controlled manner not to disturb or prevent the carbon from forming a monolithic cohesive assembly, (d) forming the cohesive carbon assembly. (a) obtaining a carbon starting material in the form of powder, particles, flakes, or loose agglomerates; (b) dispersing the carbon starting material in an organic solvent comprising one of toluene, o -dichlorobenzene (ODCB), isopropyl alcohol (IPA), N,N-dimethylformamide (DMF), benzene, chlorobenzene, m -dichlorobenzene, 1,2,4-trichlorobenzene, bromobenzene, m -dibromobenzene, o -dibromobenzene,, o -xylene, m -xylene, p -xylene, 1,2-dichloroethane, 1,2-dibromoethane, chloroform, formamide, N-methylformamide; N-vinylformamide; N-(phenethyl)formamide, N,N-diethylformamide, N,N-bis(1-methylethyl)formamide, and dimethyl sulfoxide, or any combinations thereof in a prescribed ratio of the carbon starting material to the organic solvent of between 0.015 to 200 mg carbon starting material per gram of organic solvent to form a dispersion, wherein the organic solvent is free of a polymer binding material; and (c) substantially removing the organic solvent in a controlled manner not to disturb or prevent the carbon from forming a monolithic cohesive assembly, (d) forming the cohesive carbon assembly.
An intraluminal imaging device , comprising: a flexible elongate member configured to be inserted into a body lumen within a patient, the flexible elongate member comprising a central longitudinal axis ; an imaging assembly disposed at a distal portion of the flexible elongate member , the imaging assembly comprising: a flexible substrate ; and a plurality of ultrasound transducer elements disposed on the flexible substrate , wherein the flexible substrate is disposed around the central longitudinal axis of the flexible elongate member such that the ultrasound transducer elements are farther away from the central longitudinal axis than the flexible substrate ; an outer shell positioned around the flexible substrate such that the plurality of ultrasound transducer elements contact the outer shell ; characterized in that the imaging assembly further comprises: a filling material positioned in a space between adjacent ultrasound transducer elements , the flexible substrate , and the outer shell . a flexible elongate member configured to be inserted into a body lumen within a patient, the flexible elongate member comprising a central longitudinal axis ; an imaging assembly disposed at a distal portion of the flexible elongate member , the imaging assembly comprising: a flexible substrate ; and a plurality of ultrasound transducer elements disposed on the flexible substrate , wherein the flexible substrate is disposed around the central longitudinal axis of the flexible elongate member such that the ultrasound transducer elements are farther away from the central longitudinal axis than the flexible substrate ; an outer shell positioned around the flexible substrate such that the plurality of ultrasound transducer elements contact the outer shell ; characterized in that the imaging assembly further comprises: a filling material positioned in a space between adjacent ultrasound transducer elements , the flexible substrate , and the outer shell . a flexible substrate ; and a plurality of ultrasound transducer elements disposed on the flexible substrate , wherein the flexible substrate is disposed around the central longitudinal axis of the flexible elongate member such that the ultrasound transducer elements are farther away from the central longitudinal axis than the flexible substrate ; an outer shell positioned around the flexible substrate such that the plurality of ultrasound transducer elements contact the outer shell ; characterized in that the imaging assembly further comprises: a filling material positioned in a space between adjacent ultrasound transducer elements , the flexible substrate , and the outer shell .
A cutting nozzle assembly comprising: a nozzle having a central bore extending therethrough along a longitudinal axis (LA) from an inlet end to a discharge end of the nozzle through which an associated cutting gas is discharged, and a plurality of spaced fuel gas bores arranged around the central bore , and additional preheat passages arranged around both the central bore and the fuel gas bores ; and a retaining nut receiving at least a portion of the nozzle therein, characterized in that the retaining nut includes a shroud extending axially outward from the discharge end of the nozzle , wherein both an inner surface of the shroud and the additional preheat passages are angled inwardly toward the longitudinal axis (LA). a nozzle having a central bore extending therethrough along a longitudinal axis (LA) from an inlet end to a discharge end of the nozzle through which an associated cutting gas is discharged, and a plurality of spaced fuel gas bores arranged around the central bore , and additional preheat passages arranged around both the central bore and the fuel gas bores ; and a retaining nut receiving at least a portion of the nozzle therein,
A hand brake valve , comprising a housing , a handle that is configured to pivot with respect to a geometric center point (C), wherein the handle pivots from a non-engaged position towards an engaged position and/or vice-versa, and indicating means for indicating that the hand brake valve is in the engaged position, characterized in that , the indicating means is configured to physically draw an indicator element outside the housing so as to provide a user of the hand brake valve with a visual signal that the hand brake valve is in the engaged position. a housing , a handle that is configured to pivot with respect to a geometric center point (C), wherein the handle pivots from a non-engaged position towards an engaged position and/or vice-versa, and indicating means for indicating that the hand brake valve is in the engaged position, characterized in that , the indicating means is configured to physically draw an indicator element outside the housing so as to provide a user of the hand brake valve with a visual signal that the hand brake valve is in the engaged position.
A computer program product comprising program code means for causing a data processing system to perform a method for generating and modifying a virtual model of a set of teeth when said program code means are executed on a data processing system, wherein said method comprises obtaining at least one three dimensional representation of the set of teeth; generating a virtual model of the set of teeth from said three dimensional representation, where the virtual model of the set of teeth comprises a gingival part, said gingival part comprising a virtual region corresponding to a region configured for insertion of a restoration and at least part of the gingiva surrounding said region; obtaining a virtual model of said restoration ; and modifying the gingival part of the virtual model of the set of teeth based on the virtual model of said restoration such that the virtual model of the restoration can be virtually inserted into said virtual region with no overlap between the volume of said virtual model of the restoration and the volume of said gingival part of the virtual model of the set of teeth . obtaining at least one three dimensional representation of the set of teeth; generating a virtual model of the set of teeth from said three dimensional representation, where the virtual model of the set of teeth comprises a gingival part, said gingival part comprising a virtual region corresponding to a region configured for insertion of a restoration and at least part of the gingiva surrounding said region; obtaining a virtual model of said restoration ; and modifying the gingival part of the virtual model of the set of teeth based on the virtual model of said restoration such that the virtual model of the restoration can be virtually inserted into said virtual region with no overlap between the volume of said virtual model of the restoration and the volume of said gingival part of the virtual model of the set of teeth .
An xDSL communication device using retransmission, comprising: a transmitter , the transmitter comprising a data transfer unit framer configured to generate data transfer units corresponding to framing parameters, wherein the framing parameters include a parameter L1, where L1 is a number of bits from a latency path over which the data transfer units are transmitted, wherein the transmitter retransmits data transfer units that are not acknowledged, and wherein Qtx is a delay between consecutive transmissions of the same data transfer unit, a receiver configured to receive an online parameter change request, wherein the transmitter is configured to stop the data transfer unit framer to stop generating of new data transfer units based on receiving the online parameter change request, and to start the data transfer unit framer with new framing parameters to generate new data transfer units, and wherein in case that the L1 framing parameter is changed, Qtx is changed such that a retransmission time to retransmit the data transfer units not acknowledged remains approximately constant. a transmitter , the transmitter comprising a data transfer unit framer configured to generate data transfer units corresponding to framing parameters, wherein the framing parameters include a parameter L1, where L1 is a number of bits from a latency path over which the data transfer units are transmitted, wherein the transmitter retransmits data transfer units that are not acknowledged, and wherein Qtx is a delay between consecutive transmissions of the same data transfer unit, a receiver configured to receive an online parameter change request, wherein the transmitter is configured to stop the data transfer unit framer to stop generating of new data transfer units based on receiving the online parameter change request, and to start the data transfer unit framer with new framing parameters to generate new data transfer units, and wherein in case that the L1 framing parameter is changed, Qtx is changed such that a retransmission time to retransmit the data transfer units not acknowledged remains approximately constant.
A positive electrode for a lithium secondary battery, comprising: a first positive electrode active material including a lithium cobalt-based oxide; and a second positive electrode active material including a lithium composite transition metal oxide containing at least two selected from the group consisting of nickel (Ni), cobalt (Co), and manganese (Mn), wherein the second positive electrode active material has a single crystal size of 180 to 800 nm, and wherein, when the state of charge (SOC) of the first positive electrode active material in which the voltage of the lithium secondary battery reaches a constant voltage (CV) at 1 C-rate is referred to as SOC 1 , and the state of charge (SOC) of the second positive electrode active material in which the voltage of the battery reaches a constant voltage (CV) at 1 C-rate is referred to as SOC 2 , the SOC 1 and the SOC 2 satisfy the relationship represented by Equation 1 below: SOC 1 < SOC 2 < 1.1 × SOC 1 a first positive electrode active material including a lithium cobalt-based oxide; and a second positive electrode active material including a lithium composite transition metal oxide containing at least two selected from the group consisting of nickel (Ni), cobalt (Co), and manganese (Mn), wherein the second positive electrode active material has a single crystal size of 180 to 800 nm, and wherein, when the state of charge (SOC) of the first positive electrode active material in which the voltage of the lithium secondary battery reaches a constant voltage (CV) at 1 C-rate is referred to as SOC 1 , and the state of charge (SOC) of the second positive electrode active material in which the voltage of the battery reaches a constant voltage (CV) at 1 C-rate is referred to as SOC 2 , the SOC 1 and the SOC 2 satisfy the relationship represented by Equation 1 below: SOC 1 < SOC 2 < 1.1 × SOC 1
A pharmaceutical composition comprising: a) a therapeutically effective amount of at least one cannabinoid receptor binding ligand and b) a liquid vehicle comprising at least one semifluorinated alkane; wherein the at least one cannabinoid receptor binding ligand is delta-9-tetrahydrocannabinol (THC) or any pharmaceutically acceptable salt thereof. a) a therapeutically effective amount of at least one cannabinoid receptor binding ligand and b) a liquid vehicle comprising at least one semifluorinated alkane; wherein the at least one cannabinoid receptor binding ligand is delta-9-tetrahydrocannabinol (THC) or any pharmaceutically acceptable salt thereof.
An adhesive tape having a substrate comprising 100 parts by mass of a polyvinyl chloride, with the polyvinyl chloride including one or more of the group consisting of homopolymers of polyvinyl chloride, vinyl chloride-vinyl acetate copolymers, vinyl chloride-ethylene copolymers and vinyl chloride-propylene copolymers, and, with respect to the 100 parts by mass of the polyvinyl chloride, 10-100 parts by mass of an elastomer and 10-100 parts by mass of a plasticizer, wherein the elastomer comprises an acrylonitrile monomer unit and at least one monomer unit selected from the group consisting of a chloroprene monomer unit, a butadiene monomer unit, and an isoprene monomer unit, the adhesive tape has an attenuation value of 2 dB or greater in an acoustic absorption test, with the test being performed by - bending a 350 mm × 190 mm aluminum plate with a plate thickness of 0.3 mm into a semicircle with a diameter of 290 mm, - dropping a steel rod with a diameter of 8 mm with a load of 0.16 N from a position 20 mm above the apex of the aluminum plate, - measuring the noise at impact in dB as units with a microphone installed 50 mm above the impact position, wherein the noise when one layer of an adhesive tape sample with a dimension of 25 mm × 50 mm is attached to the impact position of the steel rod is measured and the difference with respect to the noise measured with the steel rod alone is defined as the attenuation value, and the thickness of the substrate is 150 - 750 μm. the elastomer comprises an acrylonitrile monomer unit and at least one monomer unit selected from the group consisting of a chloroprene monomer unit, a butadiene monomer unit, and an isoprene monomer unit, the adhesive tape has an attenuation value of 2 dB or greater in an acoustic absorption test, with the test being performed by - bending a 350 mm × 190 mm aluminum plate with a plate thickness of 0.3 mm into a semicircle with a diameter of 290 mm, - dropping a steel rod with a diameter of 8 mm with a load of 0.16 N from a position 20 mm above the apex of the aluminum plate, - measuring the noise at impact in dB as units with a microphone installed 50 mm above the impact position, wherein the noise when one layer of an adhesive tape sample with a dimension of 25 mm × 50 mm is attached to the impact position of the steel rod is measured and the difference with respect to the noise measured with the steel rod alone is defined as the attenuation value, and - bending a 350 mm × 190 mm aluminum plate with a plate thickness of 0.3 mm into a semicircle with a diameter of 290 mm, - dropping a steel rod with a diameter of 8 mm with a load of 0.16 N from a position 20 mm above the apex of the aluminum plate, - measuring the noise at impact in dB as units with a microphone installed 50 mm above the impact position, wherein the noise when one layer of an adhesive tape sample with a dimension of 25 mm × 50 mm is attached to the impact position of the steel rod is measured and the difference with respect to the noise measured with the steel rod alone is defined as the attenuation value, and the thickness of the substrate is 150 - 750 μm.
A barrier assembled from parts, the parts comprising: first and second spaced posts ; and a first rail interconnecting said first and second posts at mid-sections along respective lengths of the first and second posts , wherein the rail is not inserted within the posts ; the first post, second post, and rail are hollow in at least the region of the intended interconnection and each post includes an aperture and is connected to the rail by a coupling , wherein the coupling includes a connector ; the connector is arranged to extend through the aperture so that a first portion of the coupling is arranged inside the hollow region of the post and a second portion of the coupling is arranged inside the hollow region of the rail ; and the connector includes an abutment that is able to be arranged to prevent movement of the connector through the aperture in use; characterised in that the connector is moveable relative to the rail so that, when the abutment is removed, the connector is able to move through the aperture to withdraw the connector from one of the post or rail so that the rail can subsequently be disassembled from the posts without increasing the distance between the two spaced posts. first and second spaced posts ; and a first rail interconnecting said first and second posts at mid-sections along respective lengths of the first and second posts , wherein the rail is not inserted within the posts ; the first post, second post, and rail are hollow in at least the region of the intended interconnection and each post includes an aperture and is connected to the rail by a coupling , wherein the coupling includes a connector ; the connector is arranged to extend through the aperture so that a first portion of the coupling is arranged inside the hollow region of the post and a second portion of the coupling is arranged inside the hollow region of the rail ; and the connector includes an abutment that is able to be arranged to prevent movement of the connector through the aperture in use; characterised in that the connector is moveable relative to the rail so that, when the abutment is removed, the connector is able to move through the aperture to withdraw the connector from one of the post or rail so that the rail can subsequently be disassembled from the posts without increasing the distance between the two spaced posts.
Process to treat carbonatitic non-sulfidic ores with a collector composition that comprises a phosphate compound of the formula I wherein R is linear or branched, saturated or unsaturated hydrocarbon group containing 8 to 24 carbon atoms, A is an alkylene oxide unit; Y is H, Na, K or an ammonium or alkylated ammonium, n is 1 - 3, p is 0 - 25, X is chosen from the same groups as R-Ap or Y, or when n is 2 or 3, the -O-X and an -O-Y may be a single -O- bound to give a cyclic phosphate.
A protective device for a ventilation system, - with at least one supporting brace , - with at least one protective element and - with a protective space formed by the protective element , wherein at least one protective element is connected to at least one supporting brace in at least one intersecting point, wherein the protective device has a center, about which the at least one protective element is arranged spirally and/or at least one protective element is arranged annularly, wherein at least one protective element is realized in the form of an elongate profile , the cross section of which is a polygon and has at least two corners that are located on a circumcircle having a circumcenter , with said elongate profile being twisted about its longitudinal axis in order to form a protective space, and wherein this twisted protective element is welded on the supporting brace . - with at least one supporting brace , - with at least one protective element and - with a protective space formed by the protective element ,
A method comprising: maintaining, by a network element in a network , a probabilistic data structure indicative of devices in the network for which telemetry data is not to be sent to a device classification service ; detecting, by the network element, a traffic flow sent from a source device to a destination device ; determining, by the network element, whether the probabilistic data structure includes entries for both the source and destination devices of the traffic flow; and sending, by the network element, flow telemetry data regarding the traffic flow to the device classification service, based on a determination that the probabilistic data structure does not include entries for both the source and destination of the traffic flow. maintaining, by a network element in a network , a probabilistic data structure indicative of devices in the network for which telemetry data is not to be sent to a device classification service ; detecting, by the network element, a traffic flow sent from a source device to a destination device ; determining, by the network element, whether the probabilistic data structure includes entries for both the source and destination devices of the traffic flow; and sending, by the network element, flow telemetry data regarding the traffic flow to the device classification service, based on a determination that the probabilistic data structure does not include entries for both the source and destination of the traffic flow.
An apparatus, comprising: a data clock path configured to receive a data clock signal and provide multiphase clock signals based on the data clock signal, wherein the multiphase clock signals have a first or second phase relationship with the data clock signal, the data clock path further configured to provide a delayed multiphase clock signal having a delay relative to a multiphase clock signal of the multiphase clock signals; a command path configured to receive a command and decode the command and provide an internal command having a timing in an internal clock domain; and a clock synchronization circuit configured to be clocked by the internal command to latch a logic level during a static period of the delayed multiphase clock signal and provide an output signal having a logic level indicative of the phase relationship of the multiphase clock signals to the data clock signal, wherein the static period of the delayed multiphase clock signal is based on the static period of the data clock signal. a data clock path configured to receive a data clock signal and provide multiphase clock signals based on the data clock signal, wherein the multiphase clock signals have a first or second phase relationship with the data clock signal, the data clock path further configured to provide a delayed multiphase clock signal having a delay relative to a multiphase clock signal of the multiphase clock signals; a command path configured to receive a command and decode the command and provide an internal command having a timing in an internal clock domain; and a clock synchronization circuit configured to be clocked by the internal command to latch a logic level during a static period of the delayed multiphase clock signal and provide an output signal having a logic level indicative of the phase relationship of the multiphase clock signals to the data clock signal, wherein the static period of the delayed multiphase clock signal is based on the static period of the data clock signal.