mhurhangee/ep-ind-claims huggingface dataset:
A method of communicating power and data between an inboard computer and an outboard computer, the method comprising: driving, by the inboard computer, a power signal through a first isolation transformer; receiving, by the outboard computer, the power signal through a second isolation transformer; powering a processor of the outboard computer using the received power signal; selectively connecting, by the processor of the outboard computer, a load connected across the second isolation transformer to transmit data to the inboard computer; and monitoring, by the inboard computer, a current through the first isolation transformer to receive the data from the outboard computer; monitoring, by the inboard computer, the current through the first isolation transformer to receive the data from the outboard computer comprises: amplifying the current through a sense resistor connected in series with the first isolation transformer; and comparing the amplified current to a reference value to generate a detected data bit signal. driving, by the inboard computer, a power signal through a first isolation transformer; receiving, by the outboard computer, the power signal through a second isolation transformer; powering a processor of the outboard computer using the received power signal; selectively connecting, by the processor of the outboard computer, a load connected across the second isolation transformer to transmit data to the inboard computer; and monitoring, by the inboard computer, a current through the first isolation transformer to receive the data from the outboard computer; monitoring, by the inboard computer, the current through the first isolation transformer to receive the data from the outboard computer comprises: amplifying the current through a sense resistor connected in series with the first isolation transformer; and comparing the amplified current to a reference value to generate a detected data bit signal. amplifying the current through a sense resistor connected in series with the first isolation transformer; and comparing the amplified current to a reference value to generate a detected data bit signal.
Apparatus for automatic immunohaematological analysis on gel cards comprising a containing body, said containing body comprising: a) a flat upper functional floor containing receptacles of reagents, diluents and tubes of samples, as well as drawers (8, 9) for the gel cards (19, 20, 26, 52) and incubators for the gel cards (19, 20, 26, 52); b) a lower floor containing receptacles (27, 28, 29, 30) for washing liquids and for the collection of waste liquids and scrapped cards, and for housing a fluidic and electronic control system; c) two moving heads (10, 11) housed in said upper floor, respectively suitable for perforating rubber stoppers of sample tubes and pipetting and for transporting the cards (19, 20, 26, 52); d) a set of longitudinal and transverse guides (91, 92) associated with the upper part of the apparatus, suitable for carrying in suspension the moving heads (10, 11) of the apparatus, which are movable on the transverse guides (91, 92); e) two centrifuges (21, 22) and a gel card reader; and f) a folding information and control touch screen wherein the upper functional floor is provided with a single working level, having on a first side reagents and diluents receptacles, the sample tubes and a dilution well, in a central area the incubators, wherein the dispensing head is configured to dispense any gel card (19,20,26,52)located in the incubators, and on a second side the card drawers (8, 9), accesses to centrifuges (21, 22), access to the card reader, and access to the receptacle for scrapped cards and temporary storage of cards for their eventual re-use. a) a flat upper functional floor containing receptacles of reagents, diluents and tubes of samples, as well as drawers (8, 9) for the gel cards (19, 20, 26, 52) and incubators for the gel cards (19, 20, 26, 52); b) a lower floor containing receptacles (27, 28, 29, 30) for washing liquids and for the collection of waste liquids and scrapped cards, and for housing a fluidic and electronic control system; c) two moving heads (10, 11) housed in said upper floor, respectively suitable for perforating rubber stoppers of sample tubes and pipetting and for transporting the cards (19, 20, 26, 52); d) a set of longitudinal and transverse guides (91, 92) associated with the upper part of the apparatus, suitable for carrying in suspension the moving heads (10, 11) of the apparatus, which are movable on the transverse guides (91, 92); e) two centrifuges (21, 22) and a gel card reader; and f) a folding information and control touch screen wherein the upper functional floor is provided with a single working level, having on a first side reagents and diluents receptacles, the sample tubes and a dilution well, in a central area the incubators, wherein the dispensing head is configured to dispense any gel card (19,20,26,52)located in the incubators, and on a second side the card drawers (8, 9), accesses to centrifuges (21, 22), access to the card reader, and access to the receptacle for scrapped cards and temporary storage of cards for their eventual re-use.
A Cartesian numerically controlled machine tool for high-precision machining, comprising: - a footing, - a first part (12; 512) with first movement means for the movement of a second part (14; 514) with respect to a first controlled axis, said first part (12; 512) being mounted on said footing; - a second part with second movement means for the movement of a third part (16; 516) with respect to a second controlled axis, - the third part (16; 516) with third movement means for the movement of a machining head with respect to a third controlled axis, - a machining head (18; 518), - at least one reference nodal point (A, B, C, D) for each of one or more of said controlled axes (X1, X2, X3) with respect to a reference device that is integral with a part of said machine tool, wherein a reference nodal point is established on said footing, a reference nodal point is established on said first part (12; 512), a reference nodal point is established on said second part and a reference nodal point is established on said third part (1 6; 516), - -on board, optical means (19; 519) for detecting and monitoring the position of the at least one reference nodal point (B, C, D) for each of one or more of said controlled axes (X1, X2, X3) with respect to said reference device, said reference device being integral with the footing and being associated with the reference nodal point established on the footing. - a footing, - a first part (12; 512) with first movement means for the movement of a second part (14; 514) with respect to a first controlled axis, said first part (12; 512) being mounted on said footing; - a second part with second movement means for the movement of a third part (16; 516) with respect to a second controlled axis, - the third part (16; 516) with third movement means for the movement of a machining head with respect to a third controlled axis, - a machining head (18; 518), - at least one reference nodal point (A, B, C, D) for each of one or more of said controlled axes (X1, X2, X3) with respect to a reference device that is integral with a part of said machine tool, wherein a reference nodal point is established on said footing, a reference nodal point is established on said first part (12; 512), a reference nodal point is established on said second part and a reference nodal point is established on said third part (1 6; 516), - -on board, optical means (19; 519) for detecting and monitoring the position of the at least one reference nodal point (B, C, D) for each of one or more of said controlled axes (X1, X2, X3) with respect to said reference device, said reference device being integral with the footing and being associated with the reference nodal point established on the footing.
Conveyor, comprising at least one conveyor support rail attachment and at least one support rail (7, 8) comprising an upper support surface, a lower support surface and two side sections adapted to cooperate with bearing surfaces of attachment means of the conveyor support rail attachment, where a conveyor support rail attachment comprises a plurality of attachment means arranged spaced apart along a longitudinal centre axis which is parallel to the moving direction of the conveyor chain, and that every second attachment means is arranged on a left side of the centre axis with a distance (a), and every other attachment means is arranged on a right side of the centre axis with a distance (b), and where each attachment means is provided with a bearing surface adapted to bear against a side section of the support rail (7, 8), characterized in that the support rail (7, 8) is supported only on one side at each attachment means, and that the side sections of a support rail are concave.
A joint member for forming a connection between two or more tubes, the joint member comprising: two or more acceptor ports, wherein each acceptor port is formed with an inner protrusion that is configured to be fitted inside a corresponding tube of the two or more tubes when the joint is connected to the corresponding tube and includes one or more fluid delivery paths built into a side wall of the inner protrusion; and one or more fluid delivery ports that are in fluid communication with a space between an inner surface of the corresponding tube and an outer surface of the inner protrusion when the joint is connected to the corresponding tube, said fluid communication provided through the one or more fluid delivery paths built into the side wall of the inner protrusion. two or more acceptor ports, wherein each acceptor port is formed with an inner protrusion that is configured to be fitted inside a corresponding tube of the two or more tubes when the joint is connected to the corresponding tube and includes one or more fluid delivery paths built into a side wall of the inner protrusion; and one or more fluid delivery ports that are in fluid communication with a space between an inner surface of the corresponding tube and an outer surface of the inner protrusion when the joint is connected to the corresponding tube, said fluid communication provided through the one or more fluid delivery paths built into the side wall of the inner protrusion.
A nuclear fuel mixture suitable for a nuclear fuel cycle including a mixture of recovered plutonium and enriched uranium in the form of oxides such that a thermal neutron reactor core loaded with said nuclear fuel mixture has an equal energy potential as the thermal neutron reactor loaded with fuel from enriched natural uranium and wherein it is possible to charge the thermal nuclear reactor core by 100% with said nuclear fuel mixture, said nuclear fuel mixture containing plutonium produced from reprocessing of pressurized water nuclear reactor spent fuel in the amount of 1-2% wt with Pu-239 isotope content of more than 51%, recovered uranium produced from reprocessing of pressurized water nuclear reactor spent fuel fuel in the amount of more than 80% wt, characterized in further comprising enriched natural uranium in the amount of 17-19% wt with U-235 isotope content of 19.75%.
A method of detecting a nucleic acid, consisting of the steps: contacting a nucleic acid with a detecting reagent in a closed system, wherein the container is turned upside down or is shaken to contact the nucleic acid with the detecting reagent in the container, wherein the detecting reagent contains a leuco dye, observing a color change of at least one of the nucleic acid and the detecting reagent under visible light, and prior to the contacting step, amplifying the nucleic acid, wherein the steps from amplification of a nucleic acid to detection are performed without opening the closed system. contacting a nucleic acid with a detecting reagent in a closed system, wherein the container is turned upside down or is shaken to contact the nucleic acid with the detecting reagent in the container, wherein the detecting reagent contains a leuco dye, observing a color change of at least one of the nucleic acid and the detecting reagent under visible light, and prior to the contacting step, amplifying the nucleic acid, wherein the steps from amplification of a nucleic acid to detection are performed without opening the closed system.
Biocompatible magnetic nanoparticles for use in a method of tracking immune cells, the method comprising: identifying a patient having a disease associated with an organ; providing an aqueous suspension containing biocompatible magnetic nanoparticles, the aqueous suspension being free of particles having a size greater than 1000 nm, the biocompatible magnetic nanoparticles each containing a superparamagnetic core that is covered by one or more biocompatible polymers, each of which has a polyethylene glycol group, a silane group, and a linker linking, via a covalent bond, the polyethylene glycol group and the silane group; administering the aqueous suspension into the blood stream of the patient; and after the administration step, obtaining a magnetic resonance image of the organ, wherein the organ is kidney or lymph node, the biocompatible magnetic nanoparticles each have an r2 relaxivity of 120 to 250 (mM.S) -1, and the presence of hyperintense or hypointense spots in the magnetic resonance image indicates immune response in the patient. identifying a patient having a disease associated with an organ; providing an aqueous suspension containing biocompatible magnetic nanoparticles, the aqueous suspension being free of particles having a size greater than 1000 nm, the biocompatible magnetic nanoparticles each containing a superparamagnetic core that is covered by one or more biocompatible polymers, each of which has a polyethylene glycol group, a silane group, and a linker linking, via a covalent bond, the polyethylene glycol group and the silane group; administering the aqueous suspension into the blood stream of the patient; and after the administration step, obtaining a magnetic resonance image of the organ,
A method of coating a medical device having a structure for implantation or disposition inside a patient, the structure including at least one surface for coating, the method including the steps of: functionalising the at least one surface of the structure by subjecting the at least one surface to acidification by a polar acid or basification by a polar base, to form at least one functionalised surface; and applying a bioactive material directly thereon, so as to overlie the at least one functionalised surface of the medical device, the bioactive material being a conjugate base or including a conjugate base component of the polar acid or being a conjugate acid or including a conjugate acid component of the polar base; wherein the bioactive material coating is free of polymer. functionalising the at least one surface of the structure by subjecting the at least one surface to acidification by a polar acid or basification by a polar base, to form at least one functionalised surface; and applying a bioactive material directly thereon, so as to overlie the at least one functionalised surface of the medical device, the bioactive material being a conjugate base or including a conjugate base component of the polar acid or being a conjugate acid or including a conjugate acid component of the polar base; wherein the bioactive material coating is free of polymer.
A method of making a mechanical fastening net, the method comprising: providing a net comprising strands (26, 28) of polymer and open areas between the strands (26, 28) of polymer; and molding a portion of the polymer in the strands (26, 28) of the net into upstanding posts to form the mechanical fastening net; wherein the net and the upstanding posts are not formed simultaneously. providing a net comprising strands (26, 28) of polymer and open areas between the strands (26, 28) of polymer; and molding a portion of the polymer in the strands (26, 28) of the net into upstanding posts to form the mechanical fastening net; wherein the net and the upstanding posts are not formed simultaneously.
A temperature determining device for determining a medium temperature (TMED) via the temperature of a surface surrounding the medium, comprising an environment temperature sensor disposed in the environment of the surface for measuring an environment temperature, and a surface temperature sensor resting on the surface for measuring a mixed temperature that lies between the medium temperature (TMED) and the environment temperature, wherein the mixed temperature that is measured and delivered by the surface temperature sensor corresponds to the medium temperature (TMED) as confounded by the environment temperature, further comprising a calculation unit with an approximation formula electronically stored thereon for calculating a medium temperature approximation (TMEDN), wherein the approximation formula is stored as a sum of the mixed temperature and a product of two factors, the first factor resulting from a difference of the mixed temperature and the environment temperature, the second factor resulting from the ratio of a dividend to a quotient, herein the dividend resulting from the difference of a calibration medium temperature (TMEDKAL) and a calibration mixed temperature (TMKAL), the divisor resulting from a difference of the calibration mixed temperature (TMKAL) and a calibration environment temperature (TUKAL), wherein the approximation formula is stored as TMEDN = TM + (TM - TU) * ((TMEDKAL - TMKAL) / (TMKAL - TUKAL)), characterized in that the surface temperature sensor is not surrounded by a housing, so that the impact of the environment temperature on the mixed temperature of the surface temperature sensor is not mediated via the thermal capacity of such a housing.
A method for implementing multicast, wherein the method is applied to a next-generation multicast virtual private network, NG MVPN, and comprises: receiving, by a first network device, a first route sent by a second network device, wherein a first data center, DC, comprises the first network device, a second DC comprises the first network device and the second network device, a third DC comprises the second network device, the first network device is an edge device for mutual communication between the first DC and the second DC, and the first route carries a second device identifier and a second autonomous system AS number, wherein the second device identifier indicates the second network device and a first virtual private network, VPN, instance corresponding to the second network device, and the second AS number indicates the second DC; determining, by the first network device, a second route based on the first route, wherein the second route is obtained by the first network device by updating the second device identifier in the first route to a first device identifier and updating the second AS number in the first route to a first AS number, wherein the first device identifier indicates the first network device and a second virtual private network, VPN, instance corresponding to the first network device, and the first AS number indicates the first DC; and sending, by the first network device, the second route to a third network device, wherein the third network device belongs to the first DC; wherein the second DC and the third DC belong to a same domain. receiving, by a first network device, a first route sent by a second network device, wherein a first data center, DC, comprises the first network device, a second DC comprises the first network device and the second network device, a third DC comprises the second network device, the first network device is an edge device for mutual communication between the first DC and the second DC, and the first route carries a second device identifier and a second autonomous system AS number, wherein the second device identifier indicates the second network device and a first virtual private network, VPN, instance corresponding to the second network device, and the second AS number indicates the second DC; determining, by the first network device, a second route based on the first route, wherein the second route is obtained by the first network device by updating the second device identifier in the first route to a first device identifier and updating the second AS number in the first route to a first AS number, wherein the first device identifier indicates the first network device and a second virtual private network, VPN, instance corresponding to the first network device, and the first AS number indicates the first DC; and sending, by the first network device, the second route to a third network device, wherein the third network device belongs to the first DC; wherein the second DC and the third DC belong to a same domain.
A device for retaining a matrix band about at least a portion of a periphery of a tooth to be treated, the device comprising: a first lug to fit on a first side of a proximal contact between the tooth to be treated and an adjacent tooth, a second lug to fit on a second, opposite side of said proximal contact between the tooth to be treated and the adjacent tooth, a resilient body member connecting between said first lug and said second lug, said body member holding said first and second lugs such that said first and second lugs must be separated to fit over said first and second sides of the proximal contact, wherein the body member applies a restorative or clamping force biasing said first and second lugs together against said first and second opposed sides of said proximal contact, and each of the first and second lugs pivotally coupled to the resilient body member to allow the resilient body member to rotate relative to the first and second lugs about an axis substantially transverse to the sagittal plane of a tooth to be treated enabling the resilient body member to rotate between the mesial and distal sides of the tooth in use while providing the clamping force biasing the first and second lugs together. a first lug to fit on a first side of a proximal contact between the tooth to be treated and an adjacent tooth, a second lug to fit on a second, opposite side of said proximal contact between the tooth to be treated and the adjacent tooth, a resilient body member connecting between said first lug and said second lug, said body member holding said first and second lugs such that said first and second lugs must be separated to fit over said first and second sides of the proximal contact, wherein the body member applies a restorative or clamping force biasing said first and second lugs together against said first and second opposed sides of said proximal contact, and each of the first and second lugs pivotally coupled to the resilient body member to allow the resilient body member to rotate relative to the first and second lugs about an axis substantially transverse to the sagittal plane of a tooth to be treated enabling the resilient body member to rotate between the mesial and distal sides of the tooth in use while providing the clamping force biasing the first and second lugs together.