mhurhangee/ep-ind-claims huggingface dataset:
A hollow fiber membrane comprising, a tubular flexible braid of monofilament embedded as a monolayer in a tubular film of membrane polymer so as to form and reinforce the membrane's lumen, the braid, comprising from 6 to 24 separate monofilaments in the range from 25 - 250 denier, braided in a spiral weave and having an air permeability > 100 cc/sec/cm2 at a Δ P of 1.378 kPa to provide contiguous rhomboid areas of the polymer bounded by monofilaments, the spiral weave being woven with filaments at axially oppositely directed spiral angles in the range from 20° - 60° from the longitudinal axis so as to be free of a restricting circumferential filament in the x-y plane, the z-axis being the axial direction of the fibres; the film, including the monolayer of braid having a wall thickness in the range from 0.2 mm - 0.6 mm, such that the membrane is adapted for use as a microfiltration or ultrafiltration liquid separation membrane, wherein the braid and the membrane are biaxially distensible allowing for longitudinal and radial distension of the membrane.
PCR kit comprising at least n PCR primer pairs (n-AMC) specific to the same motif of interest to be identified on a nucleic acid, with n equal to or greater than 2, said primers within each pair hybridizing specifically on either side of said motif of interest, characterized in that it contains: - a reference primer pair specific to said motif of interest, carrying a label M, and - at least one modified primer pair specific to said motif of interest, wherein: (i) at least one of the modified primers contains X base(s) more or fewer relative to the equivalent primer of the reference primer pair, X being an integer between 1 and 10, or (ii) the modified primers have a hybridization region on the nucleic acid of interest shifted by X base(s) relative to that of the reference primers, X being an integer between 1 and 10, and/or (iii) at least one of the modified primers carries a label different from the label(s) carried by the reference primers, so as to generate, for each motif, at least n PCR amplicons differentiable by their size and/or their labeling, thus generating redundancy of information allowing said motif of interest to be encoded. - a reference primer pair specific to said motif of interest, carrying a label M, and - at least one modified primer pair specific to said motif of interest, (i) at least one of the modified primers contains X base(s) more or fewer relative to the equivalent primer of the reference primer pair, X being an integer between 1 and 10, or (ii) the modified primers have a hybridization region on the nucleic acid of interest shifted by X base(s) relative to that of the reference primers, X being an integer between 1 and 10, and/or (iii) at least one of the modified primers carries a label different from the label(s) carried by the reference primers,
A self-propelled jack-up vessel, wherein a centreline extending from a bow end to a stern end of the vessel along a central longitudinal axis defines port and starboard sides of the vessel, and wherein the centreline substantially defines the direction of travel of the vessel, the vessel comprising: a hull, a deck and four retractable legs, fitted with spud cans (116, 118, 120, 122) to support the legs on the seafloor, the legs extending through the hull and the deck and arranged to be lowered onto the seafloor to support the vessel in an elevated position, including: a bow leg arranged on the centreline towards the bow; a stern leg arranged on the centreline towards the stern; a port leg arranged at the port side; and a starboard leg arranged at the starboard side. a bow leg arranged on the centreline towards the bow; a stern leg arranged on the centreline towards the stern; a port leg arranged at the port side; and a starboard leg arranged at the starboard side.
A container configured to contain liquid, which is in the shape of a bottle with an elongated section at its top in a first position and is convertible to a glass or goblet in a second position with the elongated section at the bottom, comprising: - a first end comprising a closed end; - a second end comprising an open end wider than said elongated section; - a first body comprising said elongated section; - a second body delimiting a hollow compartment configured to contain the liquid; and - a closure, which is a detachable closure adapted to seal said open end of said second end in said first position and to be detached from said open end of said second end; wherein, in the first position, - the first end forms a bottle top; - the second end and the closure form a bottle base; - the first body forms a bottle neck; and - the second body forms a bottle body; and wherein, in the second position, - the first end forms a base of the glass or goblet; - the second end forms an opening of the glass or goblet; - the first body forms a stem of the glass or goblet; and - the second body forms a body of the glass or goblet, wherein in the first position the position of the center of gravity of the container varies depending on the amount of the liquid contained in the container to be present in an area from a lower half of the first body, the entire second body, and the second end; wherein in the second position the position of the center of gravity of the container varies depending on the amount of the liquid contained in the container to be present in an area from a lower half of the second body, the entire first body and the first end; characterized in that the container is configured to stand alone without any further support in its first and second positions, said conversion to a glass or a goblet not needing disassembling or reassembling but just turning the container upside down, and that said second end is larger in area than said first end. - a first end comprising a closed end; - a second end comprising an open end wider than said elongated section; - a first body comprising said elongated section; - a second body delimiting a hollow compartment configured to contain the liquid; and - a closure, which is a detachable closure adapted to seal said open end of said second end in said first position and to be detached from said open end of said second end; - the first end forms a bottle top; - the second end and the closure form a bottle base; - the first body forms a bottle neck; and - the second body forms a bottle body; and - the first end forms a base of the glass or goblet; - the second end forms an opening of the glass or goblet; - the first body forms a stem of the glass or goblet; and - the second body forms a body of the glass or goblet,
A process for producing an anhydrosugar alcohol comprising: (a) heating a pentitol or hexitol sugar alcohol or monoanhydrosugar alcohol starting material until molten; (b) dehydrating said molten starting material in the presence of an acid catalyst to form an anhydrosugar alcohol mixture; and (c) purifying said anhydrosugar alcohol from said anhydrosugar alcohol mixture, wherein said purification comprises distillation of said anhydrosugar alcohol mixture in a first film evaporator. (a) heating a pentitol or hexitol sugar alcohol or monoanhydrosugar alcohol starting material until molten; (b) dehydrating said molten starting material in the presence of an acid catalyst to form an anhydrosugar alcohol mixture; and (c) purifying said anhydrosugar alcohol from said anhydrosugar alcohol mixture, wherein said purification comprises distillation of said anhydrosugar alcohol mixture in a first film evaporator.
Method of implementing a flight control system for controlling a path of an electrically controlled rotorcraft, said rotorcraft comprising at least one movable aerodynamic manoeuvring member for controlling a movement of the rotorcraft, said rotorcraft comprising at least one actuator for moving said manoeuvring member, this flight control system comprising a flight control member movable by a human pilot and a processor unit suitable for controlling said at least one actuator, this method being characterised in that on each iteration and for at least a first type of interfacing - a step of generating a first path setpoint by a setpoint generator, the first path setpoint representing a value to be reached by a first flight parameter; - a step of automatically generating a first autopilot command by the processor unit from the first path setpoint by applying a first predetermined autopilot mathematical model; - a step of generating a first pilot setpoint by the processor unit during which a movement of said control member is transformed by a first piloting-by-target model into a first pilot setpoint, said first pilot setpoint and the first flight parameter being homogenous in that they are expressed in the same measurement unit; - a step of generating a first human pilot command by the processor unit from the first pilot setpoint by applying a first predetermined human piloting mathematical model; - a step of generating a first path command by the processor unit by combining said first autopilot command and said first human pilot command; and - a control step for controlling at least said actuator, during which at least one order is transmitted by the processor unit to said actuator, said order being determined by a servo-control module of the processor unit from at least the first path command and at least a current value of said first flight parameter. - a step of generating a first path setpoint by a setpoint generator, the first path setpoint representing a value to be reached by a first flight parameter; - a step of automatically generating a first autopilot command by the processor unit from the first path setpoint by applying a first predetermined autopilot mathematical model; - a step of generating a first pilot setpoint by the processor unit during which a movement of said control member is transformed by a first piloting-by-target model into a first pilot setpoint, said first pilot setpoint and the first flight parameter being homogenous in that they are expressed in the same measurement unit; - a step of generating a first human pilot command by the processor unit from the first pilot setpoint by applying a first predetermined human piloting mathematical model; - a step of generating a first path command by the processor unit by combining said first autopilot command and said first human pilot command; and - a control step for controlling at least said actuator, during which at least one order is transmitted by the processor unit to said actuator, said order being determined by a servo-control module of the processor unit from at least the first path command and at least a current value of said first flight parameter.
A particle comprising an inorganic matrix material; a first light-emitting material; and a second light-emitting material, wherein the first light-emitting material is a light-emitting polymer and wherein the first light-emitting material has one of a net positive and net negative ionic charge, and the second light-emitting material has the other of net positive or net negative ionic charge.
A method for transmitting discovery-related signals from a transmission point to a user equipment, UE,, wherein the transmission point is adapted to transmit at least two distinct discovery-related signals, the method being performed in the transmission point and comprising the steps of: transmitting (S1-3) a first one of the at least two distinct discovery-related signals by applying a narrow beamforming comprising spatially sweeping (S 1-3-1) a coverage area of the transmission point; and transmitting (SI-4) a second one of the at least two distinct discovery-related signals by applying a broad beamforming comprising covering (S1-4-1), during a transmission of a broad beam, the coverage area of the transmission point, wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences. transmitting (S1-3) a first one of the at least two distinct discovery-related signals by applying a narrow beamforming comprising spatially sweeping (S 1-3-1) a coverage area of the transmission point; and transmitting (SI-4) a second one of the at least two distinct discovery-related signals by applying a broad beamforming comprising covering (S1-4-1), during a transmission of a broad beam, the coverage area of the transmission point, wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences. wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences.
An electrolyte composition comprising: a) a fluorinated solvent, wherein the fluorinated solvent is a fluorinated acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2, wherein R 1 is H, an alkyl group, or a fluoroalkyl group, R 2 is an alkyl group or a fluoroalkyl group, either or both of R 1 and R 2 comprises fluorine, and R 1 and R 2, taken as a pair, comprises at least two carbon atoms but not more than seven carbon atoms; b) an oxalate salt represented by the Formula: LiPF (Ox) q wherein Ox is an oxalate moiety, and q is 1, 2 or 3; and c) optionally, at least one electrolyte salt. a) a fluorinated solvent, wherein the fluorinated solvent is a fluorinated acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2, wherein R 1 is H, an alkyl group, or a fluoroalkyl group, R 2 is an alkyl group or a fluoroalkyl group, either or both of R 1 and R 2 comprises fluorine, and R 1 and R 2, taken as a pair, comprises at least two carbon atoms but not more than seven carbon atoms; b) an oxalate salt represented by the Formula: LiPF (Ox) q wherein Ox is an oxalate moiety, and q is 1, 2 or 3; and c) optionally, at least one electrolyte salt.
A method of detecting the presence or absence of a target nucleic acid sequence in a sample comprising: a) performing an amplifying step comprising contacting the sample with amplification reagents to produce an amplification product if the target nucleic acid sequence is present in the sample, and b) detecting the amplification product, wherein the amplification reagents comprise a modified nucleoside polyphosphate having a structure of: where R = purine or pyrimidine base or an analog, and n = 2, and wherein the amplification reagents further comprise a thermostable inorganic pyrophosphatase enzyme, wherein the amplification reagents further comprise a nucleic acid polymerase. a) performing an amplifying step comprising contacting the sample with amplification reagents to produce an amplification product if the target nucleic acid sequence is present in the sample, and b) detecting the amplification product, wherein the amplification reagents comprise a modified nucleoside polyphosphate having a structure of: where R = purine or pyrimidine base or an analog, and n = 2, and wherein the amplification reagents further comprise a thermostable inorganic pyrophosphatase enzyme, wherein the amplification reagents further comprise a nucleic acid polymerase.
A voltage divider circuit, comprising: a plurality of resistors connected in series; and a plurality of short circuit control elements respectively connected in parallel to the plurality of resistors, and configured to respectively control the plurality of resistors to be selected or not to be selected, the plurality of resistors comprising: a first resistor in which a plurality of first unit resistors each having a first resistance value are connected in series; and a second resistor in which a plurality of second unit resistors each having a second resistance value are connected in parallel to each other, characterized in that the second resistance value is smaller than the first resistance value, wherein each of the first unit resistors and the second unit resistors comprises a resistance region and a low resistance region arranged at each end of the resistance region, the resistance regions (5A and 5B) of the first and second unit resistors being arranged on respective different resistive elements, and the resistance regions of the first unit resistors being longer than the resistance regions of the second unit resistors. a plurality of resistors connected in series; and a plurality of short circuit control elements respectively connected in parallel to the plurality of resistors, and configured to respectively control the plurality of resistors to be selected or not to be selected, the plurality of resistors comprising: a first resistor in which a plurality of first unit resistors each having a first resistance value are connected in series; and a second resistor in which a plurality of second unit resistors each having a second resistance value are connected in parallel to each other, characterized in that the second resistance value is smaller than the first resistance value, a first resistor in which a plurality of first unit resistors each having a first resistance value are connected in series; and a second resistor in which a plurality of second unit resistors each having a second resistance value are connected in parallel to each other, characterized in that the second resistance value is smaller than the first resistance value, wherein each of the first unit resistors and the second unit resistors comprises a resistance region and a low resistance region arranged at each end of the resistance region, the resistance regions (5A and 5B) of the first and second unit resistors being arranged on respective different resistive elements, and the resistance regions of the first unit resistors being longer than the resistance regions of the second unit resistors.
Headlamp for vehicles with a plurality of LED light sources that are arranged in an LED field in the form of a matrix and each of which emits a partial light beam that hits an optical unit arranged at the front in the main radiation direction to form light patches that merge into a specified light distribution, where the optical unit comprises a first lens element and a second lens element arranged rotationally symmetrically by means of which the partial light beams are transformed in such a way that light patches formed adjacently in the light distribution directly adjoin or overlap each other, where the first lens element is formed in such a manner that the LED light sources appear as light patches of the light distribution that feature a larger separation in a vertical direction than in a horizontal direction, characterized in that - the second lens element is arranged in front of the first lens element in the main radiation direction - the first lens element features a front side, arranged at the front in the main radiation direction, that features a channel running in a horizontal direction, where the channel forms an indentation in relation to an upper margin running horizontally and a lower margin running horizontally of the first lens element - the first lens element features a reverse side at the back in the main radiation direction that is concave in shape - the reverse side of the first lens element is designed to have a curvature radius in the range of 80 mm to 120 mm and the channel is designed to be concave in relation to the upper and to the lower adjacent area and features a curvature radius in the range of 40 mm to 60 mm. - the second lens element is arranged in front of the first lens element in the main radiation direction - the first lens element features a front side, arranged at the front in the main radiation direction, that features a channel running in a horizontal direction, where the channel forms an indentation in relation to an upper margin running horizontally and a lower margin running horizontally of the first lens element - the first lens element features a reverse side at the back in the main radiation direction that is concave in shape - the reverse side of the first lens element is designed to have a curvature radius in the range of 80 mm to 120 mm and the channel is designed to be concave in relation to the upper and to the lower adjacent area and features a curvature radius in the range of 40 mm to 60 mm.
A thermoplastic resin composition comprising: a base resin comprising a polycarbonate resin and a polyester resin; inorganic fillers; and an aromatic (meth)acrylate polymer; wherein the aromatic (meth)acrylate polymer is a copolymer of a monomer mixture comprising a vinyl cyanide monomer, an aromatic vinyl monomer and an aromatic (meth)acrylate. a base resin comprising a polycarbonate resin and a polyester resin; inorganic fillers; and an aromatic (meth)acrylate polymer; wherein the aromatic (meth)acrylate polymer is a copolymer of a monomer mixture comprising a vinyl cyanide monomer, an aromatic vinyl monomer and an aromatic (meth)acrylate.