mhurhangee/ep-ind-claims huggingface dataset:
A system for user authentication and/or authorization, comprising: a portable computing device with a capacitive screen; a passive card configured to encode a first portion of an authentication or authorization code for a user via a set of capacitive points, wherein the set of capacitive points are connected to an electronic circuit to be activable by physical contact of the user or with an electrical ground, wherein the portable computing device is configured to read the set of capacitive points based on the user requesting access to a specific service or to a specific operation, and based on at least some of the capacitive points being activated and the passive card in contact with the capacitive screen, wherein the portable computing device is further configured to encode a second portion of said authentication or authorization code, decode the first portion of the authentication or authorization code, and cryptographically sign the decoded first portion using said encoded second portion of the authentication and authorization code, providing the authentication or authorization code, which is used as cryptographic key to grant access to said specific service or specific operation to the user, wherein the first portion of the authentication or authorization code depends at least on the shape, size, position and/or a time constant of the set of capacitive points in the passive card. a portable computing device with a capacitive screen; a passive card configured to encode a first portion of an authentication or authorization code for a user via a set of capacitive points, wherein the set of capacitive points are connected to an electronic circuit to be activable by physical contact of the user or with an electrical ground, wherein the portable computing device is configured to read the set of capacitive points based on the user requesting access to a specific service or to a specific operation, and based on at least some of the capacitive points being activated and the passive card in contact with the capacitive screen, wherein the portable computing device is further configured to encode a second portion of said authentication or authorization code, decode the first portion of the authentication or authorization code, and cryptographically sign the decoded first portion using said encoded second portion of the authentication and authorization code, providing the authentication or authorization code, which is used as cryptographic key to grant access to said specific service or specific operation to the user, wherein the first portion of the authentication or authorization code depends at least on the shape, size, position and/or a time constant of the set of capacitive points in the passive card.
An apparatus comprising: an electronic data processing device configured to generate a compact text representation of a genetic sequencing read, the genetic sequencing read comprising an ordered sequence of nucleotide bases having a corresponding ordered sequence of base quality scores, the compact text representation including a text string representing the ordered sequence of nucleotide bases and a base quality text field indicative of the longest sub-sequence of the ordered sequence of nucleotide bases for which the corresponding base quality scores satisfy a base quality score threshold, wherein the electronic data processing device identifies the longest sub-sequence of the ordered sequence of nucleotide bases; and a raw reads storage configured to store the compact text representation. an electronic data processing device configured to generate a compact text representation of a genetic sequencing read, the genetic sequencing read comprising an ordered sequence of nucleotide bases having a corresponding ordered sequence of base quality scores, the compact text representation including a text string representing the ordered sequence of nucleotide bases and a base quality text field indicative of the longest sub-sequence of the ordered sequence of nucleotide bases for which the corresponding base quality scores satisfy a base quality score threshold, wherein the electronic data processing device identifies the longest sub-sequence of the ordered sequence of nucleotide bases; and a raw reads storage configured to store the compact text representation.
Method for providing feed in an installation for rearing insect larvae, wherein a feed mash and insect larvae are introduced into a rearing container in a rearing phase, the rearing container is stored in a heat chamber for a period of time and, at the end of the period, the rearing container is removed from the heat chamber and the insect larvae are separated from remaining feed residues, characterized in that the method step of introducing the feed mash into the rearing container is divided into at least two substeps (110, 120), wherein, in the first substep, a first proportion of the whole feed mash to be introduced into the rearing container, with a higher liquid content as a first feed fraction, is introduced into the rearing container, and in the second substep, a second proportion of the whole feed mash to be introduced into the rearing container with a lower liquid content is introduced into the rearing container as a second feed fraction.
Door of a refrigerated chamber cabinet comprising: a. at least one insulating multiple glazing formed of at least one first glass sheet and one second glass sheet which are joined together by means of a spacer frame which holds them at a certain distance from one another, said frame extending along the horizontal and vertical edges of the glazing, b. between said at least two glass sheets, at least one internal space comprising an insulating gas layer, that is closed by at least one first peripheral seal and one second peripheral seal on the horizontal edges and at least one peripheral seal on the vertical edges, said peripheral seals being positioned around said internal space, the spacer frame comprising at least two vertical spacers and at least two horizontal spacers, at least one vertical spacer being made of transparent resin, at least one vertical peripheral seal being transparent, the horizontal spacers being composed of at least one profile, the spacers (11, 12) are connected together in order to form said spacer frame, characterized in that a) at least one fastening system attaching the door to the chamber cabinet is at least partially inserted in at least one horizontal peripheral seal, b) the door comprises a reinforcement, attached to the fastening system and inserted at least partially in at least one horizontal peripheral seal, c) the spacer frame, the peripheral seals (8, 9, 10) and the reinforcement replace the framework of a traditional door and fulfil its functions. a. at least one insulating multiple glazing formed of at least one first glass sheet and one second glass sheet which are joined together by means of a spacer frame which holds them at a certain distance from one another, said frame extending along the horizontal and vertical edges of the glazing, b. between said at least two glass sheets, at least one internal space comprising an insulating gas layer, that is closed by at least one first peripheral seal and one second peripheral seal on the horizontal edges and at least one peripheral seal on the vertical edges, said peripheral seals being positioned around said internal space, a) at least one fastening system attaching the door to the chamber cabinet is at least partially inserted in at least one horizontal peripheral seal, b) the door comprises a reinforcement, attached to the fastening system and inserted at least partially in at least one horizontal peripheral seal, c) the spacer frame, the peripheral seals (8, 9, 10) and the reinforcement replace the framework of a traditional door and fulfil its functions.
Method for producing a synchronization signal (NOCYL) for a four-stroke internal combustion engine with an odd number of cylinders (C1, C2, C3) via an electronic control system, the synchronization signal (NOCYL) used to identify a predetermined instant in the thermodynamic cycle of each of the cylinders of the engine being determined from a TDC signal identifying a determined position of each cylinder, and a signal (Cg, Bn) representative of a quantity representative of the kinematics of the crankshaft generated by each of the combustions, both generated from information from an engine crankshaft position sensor, characterized in that it comprises the following steps: - operation of the engine for a given period with ignition in the cylinders on each revolution of the cylinders, so as to produce a systematic combustion of the injected fuel, - calculation of the representative signal (Cg, Bn) - comparison of the representative signal (Cg, Bn) of a cylinder in a first revolution of the cycle (Cg1_1, B n Comb) with the representative signal of the cylinder in a second revolution of the cycle (Cg1_2, B n ech), so as to ascertain the phase of the first revolution, - resetting of the synchronization signal (NOCYL) if the analysis of the comparison indicates that the phasing of the synchronization signal was incorrect. - operation of the engine for a given period with ignition in the cylinders on each revolution of the cylinders, so as to produce a systematic combustion of the injected fuel, - calculation of the representative signal (Cg, Bn) - comparison of the representative signal (Cg, Bn) of a cylinder in a first revolution of the cycle (Cg1_1, B n Comb) with the representative signal of the cylinder in a second revolution of the cycle (Cg1_2, B n ech), so as to ascertain the phase of the first revolution, - resetting of the synchronization signal (NOCYL) if the analysis of the comparison indicates that the phasing of the synchronization signal was incorrect.
A DNA polymerase having at least 80% sequence identity with SEQ ID NO: 1 and having increased 3'-mismatch discrimination activity compared with a control DNA polymerase, wherein the DNA polymerase comprises a motif in the polymerase domain comprising A-G-H-P-F-N-L-N-X 6 -R-D-Q-L-E-R-V-L-F-D-E-L, wherein: X 6 is C, F, G, T, or Y; or wherein the DNA polymerase comprises a motif in the polymerase domain comprising A-G-H-P-F-N-L-N-X 6 -R-D-Q-L-E-R-V-L-F-D-E-L, wherein: X 6 is A, D, F, G, or K; and wherein the amino acid of the DNA polymerase corresponding to position 580 of SEQ ID NO:1 is G; wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 6 of the control DNA polymerase is S. X 6 is C, F, G, T, or Y; or X 6 is A, D, F, G, or K; and wherein the amino acid of the DNA polymerase corresponding to position 580 of SEQ ID NO:1 is G; wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 6 of the control DNA polymerase is S.
A method for making sulfur charged carbon nanotubes, comprising: dissolving sublimed sulfur particles in an initial solvent to create a solution; adding carbon nanotubes to the solution, each carbon nanotube having an exterior wall, wherein the sublimed sulfur is about 50 to 98 percent of the final combined sulfur-nanotube mixture by weight; adding a polar protic solvent to the solution by drops at a controlled rate to create sulfur particles; and removing the initial solvent from the solution by evaporation, wherein at least a first portion of the sulfur particles fills the plurality of carbon nanotubes by nanocapillary action; and at least a second portion of the sulfur particles is pi-bonded to the exterior walls of the carbon nanotubes. dissolving sublimed sulfur particles in an initial solvent to create a solution; adding carbon nanotubes to the solution, each carbon nanotube having an exterior wall, wherein the sublimed sulfur is about 50 to 98 percent of the final combined sulfur-nanotube mixture by weight; adding a polar protic solvent to the solution by drops at a controlled rate to create sulfur particles; and removing the initial solvent from the solution by evaporation, wherein at least a first portion of the sulfur particles fills the plurality of carbon nanotubes by nanocapillary action; and at least a second portion of the sulfur particles is pi-bonded to the exterior walls of the carbon nanotubes.
An apparatus for random key transmission, the apparatus comprising - a laser configured to generate a coherent source optical signal; - a quantum random number generator, QRNG, configured to generate random bits ( R i) of at least one random key; - an electro-optical modulator configured to modulate the coherent source optical signal to generate a modulated optical signal including Quadrature Phase Shift Keying, QPSK, pilot symbols temporally multiplexed with quantum key distribution, QKD, symbols representing the random bits, wherein quadratures values of the QKD symbols follow a modulation map, wherein the modulation map is a quadrature amplitude modulation, QAM, based Probabilistic Constellation Shaping, PCS, modulation map defining a mapping function for the random bits. - a laser configured to generate a coherent source optical signal; - a quantum random number generator, QRNG, configured to generate random bits ( R i) of at least one random key; - an electro-optical modulator configured to modulate the coherent source optical signal to generate a modulated optical signal including Quadrature Phase Shift Keying, QPSK, pilot symbols temporally multiplexed with quantum key distribution, QKD, symbols representing the random bits,
Tray sealing machine, comprising at least one feed unit for transporting trays in a direction of production (p), a sealing station in said direction of production downstream of said feed unit for the production of packagings, at least one discharge unit in said direction of production downstream of said sealing station as well as a gripper device which is configured to take up trays provided in a transport cycle at said feed unit and transport them into said sealing station for a tray sealing process taking place therein as well as to take up packagings produced within said sealing station and transport them to said discharge unit, where said gripper device comprises a first gripper unit with a first and a second tray gripper (11, 12), where said first and said second tray gripper (11, 12) are mounted synchronously to each other periodically adjustable along closed trajectories (K1, K2), and where said first and said second tray gripper (11, 12) are configured to perform a closing motion to take up said trays provided by said feed unit, where said first and said second tray gripper (11, 12) are each adjustable when performing said closing motion from a respective initial position (A1, A2) toward a respective closing position (P1, P2), where said first and said second tray gripper (11, 12) are adjustable toward each other during said closing motion, at least along a predetermined motion section until said closing position (P1, P2) has been reached, by way of a motion superimposed both in said direction of production and transverse to said direction of production in order to take up said trays provided at said feed unit, where said trays provided on a conveyor belt of said feed unit are arranged consecutively in said direction of production at a predetermined distance from each other which defines a respective position window between said trays, characterized in that said first gripper unit is configured such that a speed of said first and said second tray gripper (11, 12) in said direction of production when respectively performing said closing motion from said respective initial position (A1, A2) to said respective closing position can be accelerated such that said speed of said first and said second tray gripper (11, 12) in said direction of production relative to a belt speed of said feed unit, which is greater than zero, during a predetermined first time interval of the predetermined motion section is slower than said belt speed and during a subsequent predetermined second time interval until the closing position (P1, P2) has been reached is greater than said belt speed, so that said gripper fingers formed on said first and said second tray gripper (11, 12) immerse into said respective position windows located between said trays provided, each along a predetermined trajectory section.
A method of cancelling inter-carrier interference, ICI, in a target orthogonal frequency division multiple access, OFDMA, wireless communication system receiver receiving signals transmitted to it on a first set of sub-carriers and signals transmitted on a second set of sub-carriers to another receiver, the method comprising: calculating the ICI in the received signals transmitted to the target receiver caused by the received signals transmitted to the other receiver; and subtracting the calculated ICI from the received signals transmitted to the target receiver. calculating the ICI in the received signals transmitted to the target receiver caused by the received signals transmitted to the other receiver; and subtracting the calculated ICI from the received signals transmitted to the target receiver.
A thermosetting monomer comprising at least two of an aryl-cyanato group and at least two of a phosphorus group represented by a compound of Formula: wherein m is an integer from 1 to 20; wherein n is an integer from 0 to 20 with the proviso that when n is 0 then m is an integer from 2 to 20; wherein X is selected from sulfur, oxygen, and a lone electron pair; wherein each R 1 and R 2 is independently a hydrogen, an aliphatic moiety having 1 to 20 carbon atoms, or aromatic hydrocarbon moiety having 6 to 20 carbon atoms, where the aliphatic moiety and the aromatic hydrocarbon moiety can be joined to form a cyclic structure; wherein R 3 is selected from hydrogen, an aliphatic moiety having 1 to 20 carbon atoms, an aromatic hydrocarbon moiety having 6 to 20 carbon atoms, R 4 R 5 P(=X)CH 2 -, and ROCH 2 -, where R is an aliphatic moiety having 1 to 20 carbon atoms; and wherein (i) each R 4 and R 5 is independently an aliphatic moiety having 1 to 20 carbon atoms, an aromatic hydrocarbon moiety having 6 to 20 carbon atoms, where the aliphatic moiety and the aromatic hydrocarbon moiety can be joined to form a cyclic structure, RX-, or (ii) R 4 R 5 P(=X)- is represented by Formula: X is oxygen, n is 1, m is 1, each R 1 and R 2 is a methyl group, and R 3 is R 4 R 5 P(=X)CH 2 -, -; or (iii) R 4 R 5 P(=X)- is represented by Formula: X is oxygen, n is 0, m is 2 or 3, and R 3 is R 4 R 5 P(=X)CH 2 - and wherein each Ar 1 is independently a benzene, a naphthalene, or a biphenyl. wherein m is an integer from 1 to 20; wherein n is an integer from 0 to 20 with the proviso that when n is 0 then m is an integer from 2 to 20; wherein X is selected from sulfur, oxygen, and a lone electron pair; wherein each R 1 and R 2 is independently a hydrogen, an aliphatic moiety having 1 to 20 carbon atoms, or aromatic hydrocarbon moiety having 6 to 20 carbon atoms, where the aliphatic moiety and the aromatic hydrocarbon moiety can be joined to form a cyclic structure; wherein R 3 is selected from hydrogen, an aliphatic moiety having 1 to 20 carbon atoms, an aromatic hydrocarbon moiety having 6 to 20 carbon atoms, R 4 R 5 P(=X)CH 2 -, and ROCH 2 -, where R is an aliphatic moiety having 1 to 20 carbon atoms; and (i) each R 4 and R 5 is independently an aliphatic moiety having 1 to 20 carbon atoms, an aromatic hydrocarbon moiety having 6 to 20 carbon atoms, where the aliphatic moiety and the aromatic hydrocarbon moiety can be joined to form a cyclic structure, RX-, or (ii) R 4 R 5 P(=X)- is represented by Formula: X is oxygen, n is 1, m is 1, each R 1 and R 2 is a methyl group, and R 3 is R 4 R 5 P(=X)CH 2 -, -; or (iii) R 4 R 5 P(=X)- is represented by Formula: X is oxygen, n is 0, m is 2 or 3, and R 3 is R 4 R 5 P(=X)CH 2 - and wherein each Ar 1 is independently a benzene, a naphthalene, or a biphenyl. X is oxygen, n is 0, m is 2 or 3, and R 3 is R 4 R 5 P(=X)CH 2 - and wherein each Ar 1 is independently a benzene, a naphthalene, or a biphenyl.
A device for ophthalmic radiation, the device comprising: - a radiation interface adapted to at least one of output and capture radiation on an optical path directable towards an eye; - an optical branch coupler adapted to couple output radiation from three optical branches (118, 120, 122) into the optical path and to couple captured radiation from the optical path into the optical branches (118, 120, 122), wherein the optical path and the three optical branches are arranged in a tetrapod structure, and wherein the captured radiation is spectrally split into the optical branches and each of the optical branches has a different spectral range; and - a plurality of ophthalmic units (106, 108, 110, 112), each of which being arranged to couple to one or more of the optical branches (118, 120, 122). - a radiation interface adapted to at least one of output and capture radiation on an optical path directable towards an eye; - an optical branch coupler adapted to couple output radiation from three optical branches (118, 120, 122) into the optical path and to couple captured radiation from the optical path into the optical branches (118, 120, 122), wherein the optical path and the three optical branches are arranged in a tetrapod structure, and wherein the captured radiation is spectrally split into the optical branches and each of the optical branches has a different spectral range; and - a plurality of ophthalmic units (106, 108, 110, 112), each of which being arranged to couple to one or more of the optical branches (118, 120, 122).
A method for distributing a broadcast data packet to a plurality of moving nodes comprising the steps of: receiving a broadcast data packet containing at least a message, a sender identifier, a location of a sender, an identifier for a relay node and distance from the sender and the relay node; determining if a node receiving the broadcast data packet is the relay node; and distributing immediately the broadcast data packet to a plurality of moving nodes if the receiving node is the relay node, the broadcast data packet that is distributed includes an identifier for a successive relay node; wherein if the receiving node is determined not to be the relay node, the method further comprising: waiting a period of time; determining if a broadcast data packet is received from a different sender containing the same message, within the period of time; and distributing the broadcast data packet to a plurality of moving nodes if a broadcast data packet containing the same message is not received within the period of time, the broadcast data packet that is distributed includes an identifier for a successive relay node. receiving a broadcast data packet containing at least a message, a sender identifier, a location of a sender, an identifier for a relay node and distance from the sender and the relay node; determining if a node receiving the broadcast data packet is the relay node; and distributing immediately the broadcast data packet to a plurality of moving nodes if the receiving node is the relay node, the broadcast data packet that is distributed includes an identifier for a successive relay node; wherein if the receiving node is determined not to be the relay node, the method further comprising: waiting a period of time; determining if a broadcast data packet is received from a different sender containing the same message, within the period of time; and distributing the broadcast data packet to a plurality of moving nodes if a broadcast data packet containing the same message is not received within the period of time, the broadcast data packet that is distributed includes an identifier for a successive relay node. waiting a period of time; determining if a broadcast data packet is received from a different sender containing the same message, within the period of time; and distributing the broadcast data packet to a plurality of moving nodes if a broadcast data packet containing the same message is not received within the period of time, the broadcast data packet that is distributed includes an identifier for a successive relay node.