mhurhangee/ep-ind-claims huggingface dataset:
Method for simultaneously amplifying and detecting nucleic acid sequences in a reaction comprising the following steps: (i) providing a sample comprising at least one nucleic acid molecule; (ii) providing reagents for performing an amplification reaction, wherein the reagents comprise at least four dual-labeled probes, wherein a. each of the probes is specific for a nucleic acid sequence; b. at least two probes carry the same label; and c. each of the probes that carry the same label has a melting temperature (Tm) which differs by more than 2°C from the other probes with the same label when they are dissociated from their target nucleic acid sequence by heating, (iii) amplifying the nucleic acid sequences in the reaction; (iv) performing melting curve analysis with the dual-labeled probes in the reaction comprising: a. detecting the amplified nucleic acids by determining whether the labeled probe has bound its nucleic acid sequence; and b. detecting the temperature at which each given labeled probe dissociates from the nucleic acid sequence to which it has bound, wherein the labels of the probes are fluorescent labels, wherein the probes are TaqMan probes or molecular beacon probes, and wherein for each target nucleic acid to be detected, only a single dual-labeled probe is present. (i) providing a sample comprising at least one nucleic acid molecule; (ii) providing reagents for performing an amplification reaction, wherein the reagents comprise at least four dual-labeled probes, wherein a. each of the probes is specific for a nucleic acid sequence; b. at least two probes carry the same label; and c. each of the probes that carry the same label has a melting temperature (Tm) which differs by more than 2°C from the other probes with the same label when they are dissociated from their target nucleic acid sequence by heating, a. each of the probes is specific for a nucleic acid sequence; b. at least two probes carry the same label; and c. each of the probes that carry the same label has a melting temperature (Tm) which differs by more than 2°C from the other probes with the same label when they are dissociated from their target nucleic acid sequence by heating, (iii) amplifying the nucleic acid sequences in the reaction; (iv) performing melting curve analysis with the dual-labeled probes in the reaction comprising: a. detecting the amplified nucleic acids by determining whether the labeled probe has bound its nucleic acid sequence; and b. detecting the temperature at which each given labeled probe dissociates from the nucleic acid sequence to which it has bound, a. detecting the amplified nucleic acids by determining whether the labeled probe has bound its nucleic acid sequence; and b. detecting the temperature at which each given labeled probe dissociates from the nucleic acid sequence to which it has bound,
Underwater pipe for the transport of hydrocarbons comprising a metal reinforcing layer around an inner polymeric sealing sheath capable of being in contact with the hydrocarbons, characterized in that the inner polymeric sealing sheath comprises a polypropylene block copolymer or a mixture of polypropylene block copolymers, wherein the polypropylene block copolymer or the mixture has: - a density greater than 0.900 g/cm 3, and - a melt index measured at 230°C under a mass of 2.16 kg of less than 10 g/10 minutes. - a density greater than 0.900 g/cm 3, and - a melt index measured at 230°C under a mass of 2.16 kg of less than 10 g/10 minutes.
Multi beam charged particle system, comprising a manipulator device (113;201) for manipulation of one or more of a plurality of charged particle beams, wherein the manipulator device comprises: - a planar substrate comprising an array of manipulators each comprising a through opening in the plane of the planar substrate, wherein each through opening is arranged for passing at least one charged particle beam there through and each through opening is provided with electrodes (204;301-320) arranged around the through opening, said electrodes are arranged in a first set of multiple first electrodes along a first part of a perimeter of said through opening and in a second set of multiple second electrodes along a second part of said perimeter, and - electronic control circuits integrated with the planar substrate and arranged for providing voltage differences to pairs of electrodes, each pair consisting of a first electrode from the first set and a second electrode from the second set, in dependence of a position of the first and second electrode along the perimeter of the through opening, in order to provide an electrical field that is homogeneous across the through opening, wherein the planar substrate at each through opening is provided with multiple metal layers with an electrical insulating layer in between, wherein each one of said metal layers provides a set of electrodes around said through opening, and wherein the individual electrodes in the multiple metal layers that are arranged above each other are interconnected by vias. - a planar substrate comprising an array of manipulators each comprising a through opening in the plane of the planar substrate, wherein each through opening is arranged for passing at least one charged particle beam there through and each through opening is provided with electrodes (204;301-320) arranged around the through opening, said electrodes are arranged in a first set of multiple first electrodes along a first part of a perimeter of said through opening and in a second set of multiple second electrodes along a second part of said perimeter, and - electronic control circuits integrated with the planar substrate and arranged for providing voltage differences to pairs of electrodes, each pair consisting of a first electrode from the first set and a second electrode from the second set, in dependence of a position of the first and second electrode along the perimeter of the through opening, in order to provide an electrical field that is homogeneous across the through opening,
A composition for use in agarose saccharification comprising: an agarase; a β-agarooligosaccharide hydrolase having the amino acid sequence of SEQ ID NO:1 and hydrolytic activity for agarotriose; and an α-neoagarobiose hydrolase. an agarase; a β-agarooligosaccharide hydrolase having the amino acid sequence of SEQ ID NO:1 and hydrolytic activity for agarotriose; and an α-neoagarobiose hydrolase.
Rail vehicle having a roof region, in the longitudinal direction of which an air-conditioning duct is placed and which is delimited with respect to a passenger compartment by means of an inner roof, characterized in that the air-conditioning duct is composed in the longitudinal direction thereof of at least two air-conditioning duct elements which are connected to each other by means of a sealing frame for tight connection of adjacent air-conditioning duct elements, wherein the sealing frame can be pre-positioned.
A method for producing a plastic lens wherein a plurality of plastic lenses (102a, 102b) are molded simultaneously in a single molding die by filling a raw material resin into cavities (3; 3a, 3b) by injection and molding said raw material into a predetermined lens shape, wherein the cavities (3; 3a, 3b) are designed such that each of the plastic lenses (102a, 102b) to be molded can have the same volume and each of the plastic lenses has a different optical surface shape, characterized in that the method comprises:setting temporal lens shapes of the plastic lenses (102a, 102b) such that the temporal lens shapes have a same diameter and a same central thickness, obtaining a virtual average thickness of the temporal lens shapes, taking a plastic lens having the largest virtual average thickness as a standard lens, and correcting a thickness of one or more of the other plastic lenses by taking into consideration a difference (ΔAT) between a virtual average thickness of the one or more of the other plastic lenses and a virtual average thickness of the standard lens such that a central thickness of the one or more of the other plastic lenses becomes larger than a central thickness of the standard lens by an amount corresponding to the difference, whereby cavities for each of the plastic lenses (102a, 102b) to be moulded have the same volume.
A computer-implemented method of converting between an asynchronous circuit design and a synchronous circuit design, comprising: identifying a synchronous design; generating a synchronous netlist of the synchronous design; and converting the synchronous netlist to an asynchronous design; characterized in that the conversion includes: converting primary inputs and outputs from the asynchronous design into respective synchronous output and synchronous input signals, thereby bounding the asynchronous design to create a synchronous view of primary inputs and outputs of the asynchronous design, and generating annotations that translate performance characteristics of the asynchronous design back into the synchronous domain to validate timing characteristics of the asynchronous design, the performance characteristics including a cycle time that is associated with the asynchronous design. identifying a synchronous design; generating a synchronous netlist of the synchronous design; and converting the synchronous netlist to an asynchronous design; characterized in that the conversion includes: converting primary inputs and outputs from the asynchronous design into respective synchronous output and synchronous input signals, thereby bounding the asynchronous design to create a synchronous view of primary inputs and outputs of the asynchronous design, and generating annotations that translate performance characteristics of the asynchronous design back into the synchronous domain to validate timing characteristics of the asynchronous design, the performance characteristics including a cycle time that is associated with the asynchronous design. converting primary inputs and outputs from the asynchronous design into respective synchronous output and synchronous input signals, thereby bounding the asynchronous design to create a synchronous view of primary inputs and outputs of the asynchronous design, and generating annotations that translate performance characteristics of the asynchronous design back into the synchronous domain to validate timing characteristics of the asynchronous design, the performance characteristics including a cycle time that is associated with the asynchronous design.
An assembly comprising: a frame including a front side, a backside and a cavity located between the front side and backside that opens to the front side; first and second electrically conductive pads (125a, 125b) located on the frame; a first light emitting diode having an anode and a cathode, the first light emitting diode being located inside the cavity of the frame with the anode and cathode respectively being electrically coupled to the first and second electrically conductive pads; a first light diffusing optical fiber having a core and a cladding surrounding the core, the first light diffusing optical fiber including a proximal end portion having a first light receiving end that is butt-coupled to the first light emitting diode; a lid located distal to the first light emitting diode, the lid having a front side, a backside, and a through opening that extends between and through the front side and backside of the lid, the backside of the lid being attached to the front side of the frame, the first light diffusing optical fiber extending through and being supported in the through opening; and a printed circuit board having a voltage terminal and a ground terminal, the first electrically conductive pad of the frame being electrically connected to the voltage terminal and the second electrically conductive pad of the frame being electrically connected to the ground terminal. a frame including a front side, a backside and a cavity located between the front side and backside that opens to the front side; first and second electrically conductive pads (125a, 125b) located on the frame; a first light emitting diode having an anode and a cathode, the first light emitting diode being located inside the cavity of the frame with the anode and cathode respectively being electrically coupled to the first and second electrically conductive pads; a first light diffusing optical fiber having a core and a cladding surrounding the core, the first light diffusing optical fiber including a proximal end portion having a first light receiving end that is butt-coupled to the first light emitting diode; a lid located distal to the first light emitting diode, the lid having a front side, a backside, and a through opening that extends between and through the front side and backside of the lid, the backside of the lid being attached to the front side of the frame, the first light diffusing optical fiber extending through and being supported in the through opening; and a printed circuit board having a voltage terminal and a ground terminal, the first electrically conductive pad of the frame being electrically connected to the voltage terminal and the second electrically conductive pad of the frame being electrically connected to the ground terminal.
A secure selective product computation system comprising a plurality of secure computation apparatuses (1 1,..., 1 N), each secure computation apparatus being adapted for receiving a sequence of share values [c 0],..., [c n - 1] of n conditions c 0,..., c n - 1 and a binary table including multipliers m 0,0, m 0,1,..., m n - 1,0, and m n - 1, 1 associating each pair of multipliers m i,0 and m i,1 of the multipliers with a respective condition c i as inputs, and outputting a share value of a total product of the multipliers selected according to the n conditions, wherein each of the secure computation apparatuses includes: a condition integration unit adapted to calculate share values [c i c i + 1] obtained by multiplying the share values [c i] and the share values [c i + 1] where i is an even number equal to or greater than 0 or smaller than n; a table conversion unit adapted to generate a 4-value table including m' 00, m' 01, m' 10, and m' 11 where m' 00:= m i,0 m i + 1,0, m' 01:= m i,0 m i + 1,1, m' 10:= m i,1 m i + 1,0, and m' 11:= m i,1 m i + 1,1 and i is an even number equal to or greater than 0 or smaller than n; a public value multiplication unit adapted to generate share values [a i] of values a i obtained by calculating [c i c i + 1](m' 00 + m' 11 - m' 01 - m' 10) + [c i](m' 10 -m' 00) + [c i + 1](m' 01 - m' 00) + m' 00 where i is an even number equal to or greater than 0 or smaller than n; a real number multiplication unit adapted to calculate a share value of a value A obtained by multiplying all the share values [ai]; and a selective multiplication unit adapted to multiply the share value by a multiplier selected from multipliers m n - 1, 1 and m n - 1,0 according to a condition c n - 1 when n is an odd number. a condition integration unit adapted to calculate share values [c i c i + 1] obtained by multiplying the share values [c i] and the share values [c i + 1] where i is an even number equal to or greater than 0 or smaller than n; a table conversion unit adapted to generate a 4-value table including m' 00, m' 01, m' 10, and m' 11 where m' 00:= m i,0 m i + 1,0, m' 01:= m i,0 m i + 1,1, m' 10:= m i,1 m i + 1,0, and m' 11:= m i,1 m i + 1,1 and i is an even number equal to or greater than 0 or smaller than n; a public value multiplication unit adapted to generate share values [a i] of values a i obtained by calculating [c i c i + 1](m' 00 + m' 11 - m' 01 - m' 10) + [c i](m' 10 -m' 00) + [c i + 1](m' 01 - m' 00) + m' 00 where i is an even number equal to or greater than 0 or smaller than n; a real number multiplication unit adapted to calculate a share value of a value A obtained by multiplying all the share values [ai]; and a selective multiplication unit adapted to multiply the share value by a multiplier selected from multipliers m n - 1, 1 and m n - 1,0 according to a condition c n - 1 when n is an odd number.
A method for forming an implantable medical connector stack characterized by the steps of: providing an assembly pin; placing a first dielectric seal element onto the assembly pin; positioning a conductive ring contact element onto the assembly pin, the conductive ring contact element comprises a closed side comprising a side wall and an opened side; placing a canted coil spring onto the assembly pin and inside the conductive ring contact element through the opened side; placing a second dielectric seal element onto the assembly pin; and sliding the conductive ring contact element into engagement with the first and second dielectric seal elements to form a ring groove comprising one side wall of a conductive material and one side wall of a non-conductive material for retaining the canted coil spring; wherein the conductive ring contact element further comprises an axial projection incorporated on the opened side configured to engage with a groove on the second dielectric seal element to form an interference fit. providing an assembly pin; placing a first dielectric seal element onto the assembly pin; positioning a conductive ring contact element onto the assembly pin, the conductive ring contact element comprises a closed side comprising a side wall and an opened side; placing a canted coil spring onto the assembly pin and inside the conductive ring contact element through the opened side; placing a second dielectric seal element onto the assembly pin; and sliding the conductive ring contact element into engagement with the first and second dielectric seal elements to form a ring groove comprising one side wall of a conductive material and one side wall of a non-conductive material for retaining the canted coil spring; wherein the conductive ring contact element further comprises an axial projection incorporated on the opened side configured to engage with a groove on the second dielectric seal element to form an interference fit.
A voltage regulator operable in a reset mode and in a sampling mode, the voltage regulator comprising: - a first switch, - second, third and fourth switches (32, 33, 34), - a driving circuit, - a capacitive voltage divider having a first capacitor and a second capacitor in series with the first capacitor, wherein the capacitive voltage divider is connectable to an output of a voltage supply via the first switch to activate the sampling mode, - a comparator having an output connected to an input of the voltage supply, the comparator further having a first input connected to a sampling node arranged between the first capacitor and the second capacitor and the comparator having a second input connected to a reference voltage (VREF), - wherein second, third and fourth switches (32, 33, 34) are configured to selectively charge first and second capacitors (14, 16) with the reference voltage (VREF) via a respective reference voltage input, wherein second, third and fourth switches (32, 33, 34) are arranged in parallel, by way of which first and second capacitors (14, 16) and the sampling node are connectable to the reference voltage (VREF) for activating the reset mode, and wherein the second capacitor is connected to ground via the driving circuit. - a first switch, - second, third and fourth switches (32, 33, 34), - a driving circuit, - a capacitive voltage divider having a first capacitor and a second capacitor in series with the first capacitor, wherein the capacitive voltage divider is connectable to an output of a voltage supply via the first switch to activate the sampling mode, - a comparator having an output connected to an input of the voltage supply, the comparator further having a first input connected to a sampling node arranged between the first capacitor and the second capacitor and the comparator having a second input connected to a reference voltage (VREF), - wherein second, third and fourth switches (32, 33, 34) are configured to selectively charge first and second capacitors (14, 16) with the reference voltage (VREF) via a respective reference voltage input, wherein second, third and fourth switches (32, 33, 34) are arranged in parallel, by way of which first and second capacitors (14, 16) and the sampling node are connectable to the reference voltage (VREF) for activating the reset mode, and wherein the second capacitor is connected to ground via the driving circuit.
A method for wireless communication, the method performed by a base station and comprising: transmitting, by the base station to a terminal device, configuration information for a plurality of sounding reference signal resources, wherein the configuration information comprises, for each sounding reference signal resource of the plurality of sounding reference signal resources, a phase tracking reference signal, PTRS, port identifier that corresponds to the sounding reference signal resource; and notifying the terminal device of different sounding reference signal resource indications, SRIs, corresponding to different sounding reference signal resources, wherein in the case that PTRS port identifiers associated with the different SRIs are the same, demodulation reference signal, DMRS, ports corresponding to the different SRIs are associated with a same PTRS port. transmitting, by the base station to a terminal device, configuration information for a plurality of sounding reference signal resources, wherein the configuration information comprises, for each sounding reference signal resource of the plurality of sounding reference signal resources, a phase tracking reference signal, PTRS, port identifier that corresponds to the sounding reference signal resource; and notifying the terminal device of different sounding reference signal resource indications, SRIs, corresponding to different sounding reference signal resources, wherein in the case that PTRS port identifiers associated with the different SRIs are the same, demodulation reference signal, DMRS, ports corresponding to the different SRIs are associated with a same PTRS port.
A trailing edge flap assembly for a wing of an aircraft, the trailing edge flap assembly comprising: a trailing edge flap (26,28) movable between a retracted position and a deployed position; an elongated track member (32A-32C) configured to be fixedly secured to a structure of the wing; an aft coupler movably coupling an aft portion of the trailing edge flap (26,28) to the elongated track member (32A-32C), the aft coupler guiding the aft portion of the trailing edge flap (26,28) along the elongated track member (32A-32C) as the trailing edge flap (26,28) moves toward the deployed position; and a forward coupler movably coupling a forward portion of the trailing edge flap (26,28) to the elongated track member (32A-32C), the forward coupler guiding the forward portion of the trailing edge flap (26,28) along the elongated track member (32A-32C) as the trailing edge flap (26,28) moves toward the deployed position, characterised by: the forward coupler accommodating transverse movement of the forward portion of the trailing edge flap (26,28) relative to the elongated track member (32A-32C). a trailing edge flap (26,28) movable between a retracted position and a deployed position; an elongated track member (32A-32C) configured to be fixedly secured to a structure of the wing; an aft coupler movably coupling an aft portion of the trailing edge flap (26,28) to the elongated track member (32A-32C), the aft coupler guiding the aft portion of the trailing edge flap (26,28) along the elongated track member (32A-32C) as the trailing edge flap (26,28) moves toward the deployed position; and a forward coupler movably coupling a forward portion of the trailing edge flap (26,28) to the elongated track member (32A-32C), the forward coupler guiding the forward portion of the trailing edge flap (26,28) along the elongated track member (32A-32C) as the trailing edge flap (26,28) moves toward the deployed position, characterised by: the forward coupler accommodating transverse movement of the forward portion of the trailing edge flap (26,28) relative to the elongated track member (32A-32C).