mhurhangee/ep-ind-claims huggingface dataset:
A method for traffic collision avoidance, comprising: at a processing device, a) receiving phase-difference information based on phase of signals received at each element of a first two-element antenna; b) receiving phase-difference information based on phase of signals received at each element of a second two-element antenna; characterised by further comprising: c) determining if the received phase-difference information associated with the first antenna is within a predefined low-confidence bearing region (110, 112); and d) initializing (90, 96) bearing based on the received phase-difference information, if the phase-difference information is not within the low-confidence region (110, 112) or the phase-difference information from a predefined number of consecutively received signals meets a predefined consistency requirement with regard to the low-confidence bearing region. at a processing device, a) receiving phase-difference information based on phase of signals received at each element of a first two-element antenna; b) receiving phase-difference information based on phase of signals received at each element of a second two-element antenna; characterised by further comprising: c) determining if the received phase-difference information associated with the first antenna is within a predefined low-confidence bearing region (110, 112); and d) initializing (90, 96) bearing based on the received phase-difference information, if the phase-difference information is not within the low-confidence region (110, 112) or the phase-difference information from a predefined number of consecutively received signals meets a predefined consistency requirement with regard to the low-confidence bearing region. a) receiving phase-difference information based on phase of signals received at each element of a first two-element antenna; b) receiving phase-difference information based on phase of signals received at each element of a second two-element antenna; c) determining if the received phase-difference information associated with the first antenna is within a predefined low-confidence bearing region (110, 112); and d) initializing (90, 96) bearing based on the received phase-difference information, if the phase-difference information is not within the low-confidence region (110, 112) or the phase-difference information from a predefined number of consecutively received signals meets a predefined consistency requirement with regard to the low-confidence bearing region.
A composition for use in an organic device, comprising at least two cross-linking compounds, wherein each of the at least two cross-linking compounds is a polymer that has a hole-transporting site and constitutional repeating units, the at least two polymers having different average numbers of cross-linking groups per constitutional repeating unit and/or different numbers of cross-linking groups in portions other than the constitutional repeating units, and wherein the cross-linking compounds are compounds having a partial structure of the following formula:
A method for detecting and quantifying at least one molecule comprising at least one proton group immobilized at the surface of a solid support, said method comprises the following successive steps of: a) contacting said surface of the solid support on which is immobilized at least one molecule comprising at least one proton group with a solution T 1 containing Coomassie blue G250 as a coloring agent, said proton group being selected from the group composed of an amine function, an imine function, a guanidino function and a heteroaryl group, b) removing said coloring agent unreacted with said surface during step (a), c) contacting said surface with a solution T 2 capable of dissociating the possible complex(es) formed between said coloring agent and said molecule comprising at least one proton group, said solution T 2 being an aqueous solution containing an alcohol in a proportion comprised between 40% and 60% by volume relative to the total volume of the solution T 2 and carbonate ions, the pH of said solution T 2 being greater than 11, d) acidifying said solution T 2 and detecting said coloring agent possibly present in the acidified solution T 2 so as to detect and quantify said molecule comprising at least one proton group, said detection of the coloring agent during step (d) consisting in measuring the optical density of the acidified solution T 2 obtained after step (c), said detection and said quantification of said molecule comprising at least one proton group being obtained from the actual optical density corresponding to the optical density of the acidified solution T 2 obtained after step (c) from which the optical density, obtained under the same conditions but in the absence of said at least one molecule comprising at least one proton group, has been subtracted. a) contacting said surface of the solid support on which is immobilized at least one molecule comprising at least one proton group with a solution T 1 containing Coomassie blue G250 as a coloring agent, said proton group being selected from the group composed of an amine function, an imine function, a guanidino function and a heteroaryl group, b) removing said coloring agent unreacted with said surface during step (a), c) contacting said surface with a solution T 2 capable of dissociating the possible complex(es) formed between said coloring agent and said molecule comprising at least one proton group, said solution T 2 being an aqueous solution containing an alcohol in a proportion comprised between 40% and 60% by volume relative to the total volume of the solution T 2 and carbonate ions, the pH of said solution T 2 being greater than 11, d) acidifying said solution T 2 and detecting said coloring agent possibly present in the acidified solution T 2 so as to detect and quantify said molecule comprising at least one proton group,
A vessel for collection and preservation of fluid samples, comprising: a. a collection means at the upper end of the vessel; b. a reservoir at the lower end of the vessel, c. a reservoir seal means; and d. a lid suited for sealable attachment to the vessel: wherein: the reservoir comprises an inner surface; the reservoir seal means is configured to engage with the vessel to enclose the reservoir; and characterised in that: the inner surface of the vessel and the inner surface of the lid circumscribe a first chamber; the inner surface of the reservoir and a bottom surface of the reservoir seal means circumscribe a second chamber; and the ratio of the volume of the second chamber to the volume of the first chamber is less than or equal to 0.20. a. a collection means at the upper end of the vessel; b. a reservoir at the lower end of the vessel, c. a reservoir seal means; and d. a lid suited for sealable attachment to the vessel: the reservoir comprises an inner surface; the reservoir seal means is configured to engage with the vessel to enclose the reservoir; and characterised in that: the inner surface of the vessel and the inner surface of the lid circumscribe a first chamber; the inner surface of the reservoir and a bottom surface of the reservoir seal means circumscribe a second chamber; and the ratio of the volume of the second chamber to the volume of the first chamber is less than or equal to 0.20.
An LED lighting device comprising: a power source unit for stepping down a DC input voltage to a predetermined DC output voltage and supplying the DC output voltage to a light-emitting diode; a control unit for adjusting the DC output voltage by controlling the power source unit; and a control power source unit for supplying a control power to the control unit, characterized in that the control power source unit generates the control power based on the DC output voltage from the power source unit, the control power source unit includes: a current-limiting resistor unit for limiting an electric current that flows from the power source unit to the control unit; a constant voltage unit for converting a voltage to be applied to the control unit through the current-limiting resistor unit to a constant voltage; and a switching unit for switching a resistance value of the current-limiting resistor unit among a plurality of resistance values, and the switching unit switches the resistance value of the current-limiting resistor unit to a smaller resistance value as the DC output voltage decreases. a power source unit for stepping down a DC input voltage to a predetermined DC output voltage and supplying the DC output voltage to a light-emitting diode; a control unit for adjusting the DC output voltage by controlling the power source unit; and a control power source unit for supplying a control power to the control unit, characterized in that the control power source unit generates the control power based on the DC output voltage from the power source unit, the control power source unit includes: a current-limiting resistor unit for limiting an electric current that flows from the power source unit to the control unit; a constant voltage unit for converting a voltage to be applied to the control unit through the current-limiting resistor unit to a constant voltage; and a switching unit for switching a resistance value of the current-limiting resistor unit among a plurality of resistance values, and the switching unit switches the resistance value of the current-limiting resistor unit to a smaller resistance value as the DC output voltage decreases. a current-limiting resistor unit for limiting an electric current that flows from the power source unit to the control unit; a constant voltage unit for converting a voltage to be applied to the control unit through the current-limiting resistor unit to a constant voltage; and a switching unit for switching a resistance value of the current-limiting resistor unit among a plurality of resistance values, and the switching unit switches the resistance value of the current-limiting resistor unit to a smaller resistance value as the DC output voltage decreases.
A chair (10, 1000) comprising: a base assembly configured to stably support the chair on a surface; a seat pan member (12, 1012); a seat back member (20, 1020) for supporting the back of the user seated on the chair; a movement support frame (14, 1014), the movement support frame including the seat back member being supported on the base assembly; and at least two movement support members operatively connected to the seat pan member and the movement support frame, the at least two movement support members are configured to support the seat pan member in a floating manner for dynamic movement with respect to the movement support frame including the seat back member in at least one degree of freedom in a horizontal seating plane, wherein each movement support member is a rigid rod member with an omnidirectional connector at each of its ends. a base assembly configured to stably support the chair on a surface; a seat pan member (12, 1012); a seat back member (20, 1020) for supporting the back of the user seated on the chair; a movement support frame (14, 1014), the movement support frame including the seat back member being supported on the base assembly; and at least two movement support members operatively connected to the seat pan member and the movement support frame, the at least two movement support members are configured to support the seat pan member in a floating manner for dynamic movement with respect to the movement support frame including the seat back member in at least one degree of freedom in a horizontal seating plane, wherein each movement support member is a rigid rod member with an omnidirectional connector at each of its ends.
Composition for topical application comprising vanillyl butyl ether and menthol, dispersed in a hydrogel, wherein vanillyl butyl ether and menthol are present in a weight ratio comprised between 1:2 and 1:25.
An uncolored roofing granule comprising: a low solar absorption base wherein said base is selected from the group consisting of recycled glass, engineered glass, quartz, and any combinations thereof; and a low solar absorption and solar opaque coating presented on said base, said coating comprising a binder, a pigment, wherein said binder comprises a curable component and a non-clay, thermally reactive curing agent. a low solar absorption base wherein said base is selected from the group consisting of recycled glass, engineered glass, quartz, and any combinations thereof; and a low solar absorption and solar opaque coating presented on said base, said coating comprising a binder, a pigment, wherein said binder comprises a curable component and a non-clay, thermally reactive curing agent.
A wearable sensor device, comprising: a heart rate monitor (20,22) having an output representing a monitored heart rate; a motion sensor having an output representing a sensed motion; an optical sensor for detecting if a skin contact surface of the sensor device is in contact with a surface; and a processor, wherein the processor is adapted to process the heart rate monitor output, the motion sensor output and the optical skin contact sensor output and to determine that the sensor device is currently not being worn based on analysis of the combination of output signals from the heart rate monitor, motion sensor and optical skin contact sensor, wherein the processor is adapted to categorize the heart rate monitor, motion sensor and optical skin contact sensor outputs to define at least the two states of device worn and device not worn, wherein the processor is adapted to implement a transition from the device worn state to the device not worn state based on analysis of the heart rate monitor, motion sensor and optical skin contact sensor outputs and timing values, and characterised in that the processor is adapted to implement a transition from the device not worn state to the device worn state based on analysis only of the optical skin contact sensor output and timing values such that only the optical skin contact sensor output can trigger a transition from the device not worn state.. a heart rate monitor (20,22) having an output representing a monitored heart rate; a motion sensor having an output representing a sensed motion; an optical sensor for detecting if a skin contact surface of the sensor device is in contact with a surface; and a processor, wherein the processor is adapted to process the heart rate monitor output, the motion sensor output and the optical skin contact sensor output and to determine that the sensor device is currently not being worn based on analysis of the combination of output signals from the heart rate monitor, motion sensor and optical skin contact sensor, wherein the processor is adapted to categorize the heart rate monitor, motion sensor and optical skin contact sensor outputs to define at least the two states of device worn and device not worn, wherein the processor is adapted to implement a transition from the device worn state to the device not worn state based on analysis of the heart rate monitor, motion sensor and optical skin contact sensor outputs and timing values, and characterised in that the processor is adapted to implement a transition from the device not worn state to the device worn state based on analysis only of the optical skin contact sensor output and timing values such that only the optical skin contact sensor output can trigger a transition from the device not worn state..
A method for routing traffic between distinct InfiniBand, IB, subnets in a network environment, wherein the subnets are interconnected using routers (105, 106), the method comprising: providing each of the IB subnets with a local identifier, LID, address space that has only local visibility within a given subnet, whereby a LID can be re-used in a different subnet; receiving, at a router, a list of destinations that the router is responsible for routing one or more packets to, wherein the router connects to at least one subnet in the network environment; and making a routing decision for each of said one or more packets by: obtaining a destination LID based on a destination global identifier associated with the packet; generating a random number based on a source LID contained in the packet and said obtained destination LID, including generating a same random number for a given source and destination pair; and using a modulo based hash that takes said generated random number to select one router port from a plurality of output router ports of the router so that a given source and destination pair always use the same path through the network. providing each of the IB subnets with a local identifier, LID, address space that has only local visibility within a given subnet, whereby a LID can be re-used in a different subnet; receiving, at a router, a list of destinations that the router is responsible for routing one or more packets to, wherein the router connects to at least one subnet in the network environment; and making a routing decision for each of said one or more packets by: obtaining a destination LID based on a destination global identifier associated with the packet; generating a random number based on a source LID contained in the packet and said obtained destination LID, including generating a same random number for a given source and destination pair; and using a modulo based hash that takes said generated random number to select one router port from a plurality of output router ports of the router so that a given source and destination pair always use the same path through the network. obtaining a destination LID based on a destination global identifier associated with the packet; generating a random number based on a source LID contained in the packet and said obtained destination LID, including generating a same random number for a given source and destination pair; and using a modulo based hash that takes said generated random number to select one router port from a plurality of output router ports of the router so that a given source and destination pair always use the same path through the network.
Device for levelling rigid cladding plates disposed on a surface to clad, comprises a levelling member and a wedge, where the levelling member is T-shaped and comprises a flat base adapted to lean on the surface to clad, and a second flat member perpendicularly joined to the base and which is provided in its lower part with a first opening, wherein the wedge can be inserted, and with end notches to weaken the second member against shearing stresses, where the wedge comprises a settling surface, and a working surface, inclined with respect to the settling surface and adapted to transmit towards the second member tractive efforts which tend to separate the levelling member from the surface, and the working surface incorporates grooves which define saw teeth, to block the backward movement of the wedge with respect to the second member, and is characterized in that the device further comprises a first actuation member, where the first member is a manual tool comprising: - a support, equipped, at a first end, with a handle produced in polymeric material and, at a second end, with a graduated scale, to apply the suitable effort in accordance with the height of the cladding plates, - a third support member, produced in polymeric material, comprising a guide adapted to allow the displacement of the third member along the support; and first legs disposed in the lower part, separated by a second opening which allows the passage of the wedge, and adapted to provide a distancing between the support and the cladding plate, where the first legs further comprise feet to rest on the cladding plate, and - a pusher, produced in polymeric material, joined by an articulation with the support and equipped with a first gripping portion and a second pushing portion to push the wedge by pivoting of the support by the articulation, causing the efforts to separate the levelling member and the surface. - a support, equipped, at a first end, with a handle produced in polymeric material and, at a second end, with a graduated scale, to apply the suitable effort in accordance with the height of the cladding plates, - a third support member, produced in polymeric material, comprising a guide adapted to allow the displacement of the third member along the support; and first legs disposed in the lower part, separated by a second opening which allows the passage of the wedge, and adapted to provide a distancing between the support and the cladding plate, where the first legs further comprise feet to rest on the cladding plate, and - a pusher, produced in polymeric material, joined by an articulation with the support and equipped with a first gripping portion and a second pushing portion to push the wedge by pivoting of the support by the articulation, causing the efforts to separate the levelling member and the surface.
A compound selected from the group consisting of: GA1 4-(5-(2-(3,5-bis(trifluoromethyl)phenyl)-N,2-dimethylpropanamido)-4-(o-tolyl)pyridin-2-yl)-1-methyl-1-((phosphonooxy)methyl)piperazin-1-ium, GA2 1-(acetoxymethyl)-4-(5-(2-(3,5-bis(trifluoromethyl)phenyl)-N,2-dimethylpropanamido)-4-(o-tolyl)pyridin-2-yl)-1-methylpiperazin-1-ium, GA3 4-(5-(2-(3,5-bis(trifluoromethyl)phenyl)-N,2-dimethylpropanamido)-4-(o-tolyl)pyridin-2-yl)-1-((butyryioxy)methyl)-1-methylpiperazin-1-imo, GA4 1-(5-(2-(3,5-bis(trifluoromethyl)phenyl)-N,2-dimethylpropanamido)-4-(o-tolyl)pyridin-2-yl)-4-methylpiperazine 1,4-dioxide, GA6 4-(5-(2-(3,5-bis(trifluoromethyl)phenyl)-N,2-dimethylpropanamido)-1-oxido-4-(o-tolyl)pyridin-2-yl)-1-methylpiperazine 1-oxide, or a pharmaceutically acceptable salt thereof.
A capacitor bank for a subsea electrical component comprising: - a plurality of capacitors, - a plurality of resistors, each of the capacitors being in series with at least one of the resistors, - a plurality of diodes, each of the diodes being in parallel with one of the resistors for by-passing the resistors during discharge of the plurality of capacitors. - a plurality of capacitors, - a plurality of resistors, each of the capacitors being in series with at least one of the resistors, - a plurality of diodes, each of the diodes being in parallel with one of the resistors for by-passing the resistors during discharge of the plurality of capacitors.
A method of preparing a bacterial OMV carrying a tumor antigen, said method comprising: (a) culturing a Gram-negative bacterium of the genus Escherichia expressing a fusion protein comprising (i) a bacterial protein selected from Factor H Binding Protein (fHbp), Neisseria heparin binding antigen (NHBA), Maltose Binding Protein, Outer Membrane Protein-F (ompF) and Aggregatibacter actinomycetemcomitans Factor H binding protein (Aa-fHbp), and (ii) one or more copies of the tumor antigen protein; (b) separating the OMV from the bacterial culture. (a) culturing a Gram-negative bacterium of the genus Escherichia expressing a fusion protein comprising (i) a bacterial protein selected from Factor H Binding Protein (fHbp), Neisseria heparin binding antigen (NHBA), Maltose Binding Protein, Outer Membrane Protein-F (ompF) and Aggregatibacter actinomycetemcomitans Factor H binding protein (Aa-fHbp), and (ii) one or more copies of the tumor antigen protein; (b) separating the OMV from the bacterial culture.