mhurhangee/ep-ind-claims huggingface dataset:
A steel plate having; a chemical composition consisting of, by mass%: 0.08% to 0.20% of C; 0.05% to 0.40% of Si; 0.5% to 5.0% of Mn; 0.015% or less of P; 0.0050% or less of S; 0% to 3.0% of Cr; 0% to 5.0% of Ni; 0% to 0.080% of Al; 0.0010% to 0.0070% of N; 0.0003% to 0.0030% of B; 0% to 0.0025% of O, and optionally one or more selected from 0.50% or less of Cu; 1.50% or less of Mo; 0.200% or less of V; 0.005% to 0.020% of Ti; 0.0001% to 0.002% of Mg; 0.01% to 0.20% of Ta; 0.005% to 0.1% of Zr; 0.001% to 0.01% of Y; 0.0005% to 0.0050% of Ca; and 0.0005% to 0.0100% of REMs, and the balance being Fe and incidental impurities, wherein the chemical composition satisfies a relationship shown below, Ceq IIW = % C + % Mn / 6 + % Cu + % Ni / 15 + % Cr + % Mo + % V / 5 ≥ 0.65 where [%M] indicates content of an element M in the steel plate by mass% and has a value of 0 in a situation in which the element M is not contained in the steel plate, a microstructure in which: prior γ grain size in a mid-thickness part of the steel plate has a maximum value, expressed as an equivalent circle diameter, of 150 μm or less; and a total area ratio of martensite and bainite in the mid-thickness part is 80% or greater, and a yield strength of 620 MPa or greater and a plate thickness of 100 mm to 300 mm. 0.08% to 0.20% of C; 0.05% to 0.40% of Si; 0.5% to 5.0% of Mn; 0.015% or less of P; 0.0050% or less of S; 0% to 3.0% of Cr; 0% to 5.0% of Ni; 0% to 0.080% of Al; 0.0010% to 0.0070% of N; 0.0003% to 0.0030% of B; 0% to 0.0025% of O, and optionally one or more selected from 0.50% or less of Cu; 1.50% or less of Mo; 0.200% or less of V; 0.005% to 0.020% of Ti; 0.0001% to 0.002% of Mg; 0.01% to 0.20% of Ta; 0.005% to 0.1% of Zr; 0.001% to 0.01% of Y; 0.0005% to 0.0050% of Ca; and 0.0005% to 0.0100% of REMs, and the balance being Fe and incidental impurities, wherein the chemical composition satisfies a relationship shown below, Ceq IIW = % C + % Mn / 6 + % Cu + % Ni / 15 + % Cr + % Mo + % V / 5 ≥ 0.65 prior γ grain size in a mid-thickness part of the steel plate has a maximum value, expressed as an equivalent circle diameter, of 150 μm or less; and a total area ratio of martensite and bainite in the mid-thickness part is 80% or greater, and
An apparatus for introducing vaporized hydrogen peroxide at a concentration smaller than or equal to 10 PPM into an isolated chamber, and in particular into a chamber of an isolator, for example a pharmaceutical isolator, the apparatus comprising: a vaporized hydrogen peroxide generator, which operates through photocatalysis and comprises at least one plate having a coating of photocatalytic material activatable by UV radiation, in order to transform the humidity of the air present in the isolated chamber into vaporized hydrogen peroxide, and at least one UV radiation source arranged so as to irradiate UV radiation on said coating, thus activating the photocatalysis; and a forced ventilation system, which is suitable to introduce the vaporized hydrogen peroxide into the isolated chamber and comprises a pneumatic circuit suitable to establish a closed-path communication between the isolated chamber and the vaporized hydrogen peroxide generator and a fan positioned in the pneumatic circuit to circulate the air between the isolated chamber and the vaporized hydrogen peroxide generator; the apparatus being characterized in that said plate is a metal plate and in that it comprises a spectroscopy gas analyser, which is suitable to communicate with the isolated chamber so as to measure the concentration of the vaporized hydrogen peroxide in the isolated chamber, and control means, which are configured to control the vaporized hydrogen peroxide generator as a function of measured values (CMeas) of the vaporized hydrogen peroxide concentration and of at least one reference value (CRef) of the vaporized hydrogen peroxide concentration and to control the power of said UV radiation source so as to adjust the intensity of the UV radiation and, hence, the quantity of vaporized hydrogen peroxide generated and introduced into the isolated chamber.
A skin-effect based heating cable containing center conductor, inner insulation layer and ferromagnetic outer conductor coaxially located around them, wherein the inner insulation layer is made of a polymer material and the outer conductor is made in form of corrugated ferromagnetic steel tube, characterized in that the wall thickness of the corrugated ferromagnetic steel tube is less than three skin depths at the supply voltage operating frequency and the center conductor is made of at least one non-ferromagnetic high-conductivity conductor.
Composite carbon fibers, consisting of: multi-walled carbon nanotubes in which 99 % by number or more of the multi-walled carbon nanotubes have a fiber diameter of not less than 5 nm and not more than 40 nm, carbon black based electrically conductive particles having a primary particle diameter of not less than 20 nm and not more than 100 nm, and graphitized carbon nanofibers in which 99 % by number or more of the graphitized carbon nanofibers have a fiber diameter of not less than 50 nm and not more than 300 nm, wherein the multi-walled carbon nanotubes in the composite carbon fibers have an aspect ratio of 100 or higher, the content of the carbon black based electrically conductive particles is not less than 20% by mass and not more than 70% by mass, the multi-walled carbon nanotubes are homogeneously dispersed between the graphitized carbon nanofibers and the carbon black based electrically conductive particles such that the graphitized carbon nanofibers and the carbon black based electrically conductive particles are present in a space between the multiwalled carbon nanotubes untangled into a loosened state, and the multi-walled carbon nanotubes in the untangled state are entangled on the surfaces of the graphitized carbon nanofibers and the carbon black based electrically conductive particles. multi-walled carbon nanotubes in which 99 % by number or more of the multi-walled carbon nanotubes have a fiber diameter of not less than 5 nm and not more than 40 nm, carbon black based electrically conductive particles having a primary particle diameter of not less than 20 nm and not more than 100 nm, and graphitized carbon nanofibers in which 99 % by number or more of the graphitized carbon nanofibers have a fiber diameter of not less than 50 nm and not more than 300 nm, wherein the multi-walled carbon nanotubes in the composite carbon fibers have an aspect ratio of 100 or higher, the content of the carbon black based electrically conductive particles is not less than 20% by mass and not more than 70% by mass, the multi-walled carbon nanotubes are homogeneously dispersed between the graphitized carbon nanofibers and the carbon black based electrically conductive particles such that the graphitized carbon nanofibers and the carbon black based electrically conductive particles are present in a space between the multiwalled carbon nanotubes untangled into a loosened state, and the multi-walled carbon nanotubes in the untangled state are entangled on the surfaces of the graphitized carbon nanofibers and the carbon black based electrically conductive particles.
A surgical handpiece, comprising: a housing; an electrical component within the housing; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer, wherein the thermal conductive layer is closer to the housing than the electrical insulating layer; and characterised in that: the thermal conductive layer comprises a plurality of thermal conductive material pieces (110a, 110b), wherein there is an overlap between two thermal conductive material pieces (110a, 110b). a housing; an electrical component within the housing; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer, wherein the thermal conductive layer is closer to the housing than the electrical insulating layer; and characterised in that: the thermal conductive layer comprises a plurality of thermal conductive material pieces (110a, 110b), wherein there is an overlap between two thermal conductive material pieces (110a, 110b).
An electronic inverter assembly, the assembly comprising: a primary direct current bus having a positive terminal and a negative terminal; a primary inverter power module comprising one or more pairs of semiconductor switches mounted on a primary substrate, each pair of semiconductors comprising a low-side semiconductor switch and a high-side semiconductor switch coupled together between the primary direct current bus, each of the semiconductor switches comprising a control terminal and switched terminals; a secondary direct current bus having a positive terminal and a negative terminal; a secondary inverter power module comprising one or more pairs of semiconductor switches mounted on a secondary substrate, each pair of semiconductors comprising a low-side semiconductor switch and a high-side semiconductor switch coupled together between the secondary direct current bus, each of the semiconductor switches comprising a control terminal and switched terminals; and a coaxial bus connector having a first end and a second end opposite the first end, the first end having a first positive terminal and a first negative terminal coupled to the primary direct current bus, the second end having a second positive terminal and a second negative terminal coupled to the secondary direct current bus, wherein the coaxial bus connector comprises a dielectric material between a center conductor and a coaxial sleeve to form a snubber capacitor to absorb electrical energy or to absorb voltage spikes. a primary direct current bus having a positive terminal and a negative terminal; a primary inverter power module comprising one or more pairs of semiconductor switches mounted on a primary substrate, each pair of semiconductors comprising a low-side semiconductor switch and a high-side semiconductor switch coupled together between the primary direct current bus, each of the semiconductor switches comprising a control terminal and switched terminals; a secondary direct current bus having a positive terminal and a negative terminal; a secondary inverter power module comprising one or more pairs of semiconductor switches mounted on a secondary substrate, each pair of semiconductors comprising a low-side semiconductor switch and a high-side semiconductor switch coupled together between the secondary direct current bus, each of the semiconductor switches comprising a control terminal and switched terminals; and a coaxial bus connector having a first end and a second end opposite the first end, the first end having a first positive terminal and a first negative terminal coupled to the primary direct current bus, the second end having a second positive terminal and a second negative terminal coupled to the secondary direct current bus, wherein the coaxial bus connector comprises a dielectric material between a center conductor and a coaxial sleeve to form a snubber capacitor to absorb electrical energy or to absorb voltage spikes.
A computer implemented method of excluding portions of a scene from a video signal in a local augmented reality, AR, environment for data capture and transmission compliance, said method comprising: slaving a pointing direction of a video camera to user motion; capturing a video signal within a video camera field of view, FOV, of an object in a local scene; receiving from a remote location hand gestures for manipulation of the object; overlaying the hand gestures on the video signal and displaying an augmented reality to the user to instruct the user in manipulation of the object; characterized by prior to capturing the video signal, determining whether the video camera pointing direction satisfied an alignment condition to a marker in the local scene such that the video camera FOV lies within a user-defined allowable FOV about the marker; wherein the marker is paired to a separate sensor whose pointing direction is slaved to the user motion, wherein the sensor detects the presence of the marker within a sensor FOV to determine whether the camera pointing direction satisfies the alignment condition; and if the alignment condition is not satisfied, controlling the camera to exclude at least a portion of the video camera FOV that lies outside the user-defined allowable FOV from capture within the video signal. slaving a pointing direction of a video camera to user motion; capturing a video signal within a video camera field of view, FOV, of an object in a local scene; receiving from a remote location hand gestures for manipulation of the object; overlaying the hand gestures on the video signal and displaying an augmented reality to the user to instruct the user in manipulation of the object; prior to capturing the video signal, determining whether the video camera pointing direction satisfied an alignment condition to a marker in the local scene such that the video camera FOV lies within a user-defined allowable FOV about the marker; wherein the marker is paired to a separate sensor whose pointing direction is slaved to the user motion, wherein the sensor detects the presence of the marker within a sensor FOV to determine whether the camera pointing direction satisfies the alignment condition; and if the alignment condition is not satisfied, controlling the camera to exclude at least a portion of the video camera FOV that lies outside the user-defined allowable FOV from capture within the video signal.
Method for operating a management system comprising at least one manager and a plurality of agents (NE1, NE2, NE3), in which an external unit provides the manager with information items (VOUCHER) which comprise a plurality of triggering information items, the triggering information items are stored in a memory of the manager, at least one of the triggering information items is sent by the manager to one of one of the agents (NE1, NE2, NE3), whereupon the at least one of the triggering information items effects in that one of the agents(NE1, NE2, NE3) the triggering of at least one hardware unit (HW1, HW2, HW3, HW4), the at least one of the triggering information items is erased or marked in the memory of the manager, characterized in that each of the triggering information items for triggering a certain type of hardware unit (HW1, HW2, HW3) can be used in any one of the plurality of agents (NE1, NE2, NE3).
A method for measuring a generation of thrombin in a sample of whole blood as a function of time comprising: to a sample of whole blood adding a fluorogenic substrate and a thrombin activator to form an activated sample; permitting a conversion product to form in the activated sample; measuring fluorescence as a function of time from a fluorescent group released during the formation of the conversion product with the use of a fluorescence detector having a standard range mode and an extended range mode, the fluorescence detector operating in the extended range mode and having an increased sensitivity; and calculating thrombin generation as a function of time from the measured fluorescence as a function of time. to a sample of whole blood adding a fluorogenic substrate and a thrombin activator to form an activated sample; permitting a conversion product to form in the activated sample; measuring fluorescence as a function of time from a fluorescent group released during the formation of the conversion product with the use of a fluorescence detector having a standard range mode and an extended range mode, the fluorescence detector operating in the extended range mode and having an increased sensitivity; and calculating thrombin generation as a function of time from the measured fluorescence as a function of time.
An apparatus for locating one or more buried objects each emitting an electromagnetic signal, the apparatus comprising: a sensor assembly (34, 98, 126, 264) including a plurality K of sensors (42, 44, 46) each having a sensor axis and producing a time-varying sensor signal S k (t), wherein 1 ≤ k ≤ K; characterized in that the apparatus further comprises a processor coupled to the sensor assembly configured to process a plurality K of the time-varying sensor signals {S k (t)} representing a first electromagnetic signal emission, including a matrix accumulator configured to produce a data signal representing a K by K covariance matrix A T corresponding to the covariances of the time-varying sensor signals (S k (t)} over a selected time interval, wherein covariance matrix A T has a plurality K of eigenvalues {λ k} and associated eigenvectors {V k} and calculating means configured to produce a data signal representing a field vector of the first electromagnetic signal emission at the sensor assembly, wherein the field vector corresponds to the eigenvector V 1 associated with the largest λ 1 of the eigenvalues {λ k}; and a user interface, UI, coupled to the processing circuit for indicating the first electromagnetic signal emission field vector at the sensor assembly. a sensor assembly (34, 98, 126, 264) including a plurality K of sensors (42, 44, 46) each having a sensor axis and producing a time-varying sensor signal S k (t), wherein 1 ≤ k ≤ K; characterized in that the apparatus further comprises a processor coupled to the sensor assembly configured to process a plurality K of the time-varying sensor signals {S k (t)} representing a first electromagnetic signal emission, including a matrix accumulator configured to produce a data signal representing a K by K covariance matrix A T corresponding to the covariances of the time-varying sensor signals (S k (t)} over a selected time interval, wherein covariance matrix A T has a plurality K of eigenvalues {λ k} and associated eigenvectors {V k} and calculating means configured to produce a data signal representing a field vector of the first electromagnetic signal emission at the sensor assembly, wherein the field vector corresponds to the eigenvector V 1 associated with the largest λ 1 of the eigenvalues {λ k}; and a user interface, UI, coupled to the processing circuit for indicating the first electromagnetic signal emission field vector at the sensor assembly. a matrix accumulator configured to produce a data signal representing a K by K covariance matrix A T corresponding to the covariances of the time-varying sensor signals (S k (t)} over a selected time interval, wherein covariance matrix A T has a plurality K of eigenvalues {λ k} and associated eigenvectors {V k} and calculating means configured to produce a data signal representing a field vector of the first electromagnetic signal emission at the sensor assembly, wherein the field vector corresponds to the eigenvector V 1 associated with the largest λ 1 of the eigenvalues {λ k}; and a user interface, UI, coupled to the processing circuit for indicating the first electromagnetic signal emission field vector at the sensor assembly.
A process for the production of vinyl chloride by thermal cracking of 1,2-dichloroethane in a cracking furnace, in which a medium pressure of from 1.4 to 2.5 MPa is maintained in the system and an externally heatable and separately regulatable heat exchanger is provided by means of which pressure fluctuations and temperature fluctuations within the system can be compensated for, wherein a second heat exchanger in the EDC feed line serves to heat the EDC that is to be introduced into the first heat exchanger and wherein a third heat exchanger heats the EDC to 200-250°C.
Earthing clamp for fastening and electrically contact-connecting at least two cables to a separate surface, comprising: a plate with a first longitudinal edge and a second longitudinal edge which is situated opposite the first longitudinal edge, the two longitudinal edges (12, 14) extending in a first direction of the plate, and a first transverse edge and a second transverse edge which is situated opposite the first transverse edge, the two transverse edges (16, 18) extending perpendicularly to the first and second longitudinal edge (12, 14) in a second direction of the plate; a first cable fastening region for fastening and electrically contact-connecting a first cable to the plate, the first cable fastening region extending along the first transverse edge; a second cable fastening region for fastening and electrically contact-connecting a separate second cable to the plate, the second cable fastening region extending along the second transverse edge; an opening, which is arranged between the first and the second cable fastening region (30, 32), for inserting a fastening means; a first lug which extends between the first and the second cable fastening region (30, 32) parallel to the first transverse edge and perpendicularly to the plate plane in the direction of a bottom side of the plate; and a second lug which extends between the first and the second cable fastening region (30, 32) parallel to the second transverse edge and perpendicularly to the plate plane in the direction of the bottom side of the plate. a plate with a first longitudinal edge and a second longitudinal edge which is situated opposite the first longitudinal edge, the two longitudinal edges (12, 14) extending in a first direction of the plate, and a first transverse edge and a second transverse edge which is situated opposite the first transverse edge, the two transverse edges (16, 18) extending perpendicularly to the first and second longitudinal edge (12, 14) in a second direction of the plate; a first cable fastening region for fastening and electrically contact-connecting a first cable to the plate, the first cable fastening region extending along the first transverse edge; a second cable fastening region for fastening and electrically contact-connecting a separate second cable to the plate, the second cable fastening region extending along the second transverse edge; an opening, which is arranged between the first and the second cable fastening region (30, 32), for inserting a fastening means; a first lug which extends between the first and the second cable fastening region (30, 32) parallel to the first transverse edge and perpendicularly to the plate plane in the direction of a bottom side of the plate; and a second lug which extends between the first and the second cable fastening region (30, 32) parallel to the second transverse edge and perpendicularly to the plate plane in the direction of the bottom side of the plate.