mhurhangee/ep-ind-claims huggingface dataset:
An isolated peptide of less than 15 amino acids having cytotoxic T cell -inducing ability, wherein the peptide comprises the amino acid sequence of (a) or (b) below: (a) the amino acid sequence selected from the group consisting of SEQ ID NOs: 13, 1 and 9; or (b) the amino acid sequence in which one, two, three or four amino acids are substituted in the amino acid sequence selected from the group consisting of SEQ ID NOs: 13, 1 and 9, wherein the one, two, three or four amino acid substitution(s) is/are selected from the group consisting of (i) to (iv) below: (i) the second amino acid from the N terminus is substituted with threonine, valine, isoleucine, leucine, phenylalanine or tyrosine; (ii) the third amino acid from the N terminus is substituted with leucine, phenylalanine, tyrosine, isoleucine or alanine; (iii) the seventh amino acid from the N terminus is substituted with leucine, isoleucine, tyrosine, valine or phenylalanine; and (iv) the C-terminal amino acid is substituted with lysine or arginine. (a) the amino acid sequence selected from the group consisting of SEQ ID NOs: 13, 1 and 9; or (b) the amino acid sequence in which one, two, three or four amino acids are substituted in the amino acid sequence selected from the group consisting of SEQ ID NOs: 13, 1 and 9, wherein the one, two, three or four amino acid substitution(s) is/are selected from the group consisting of (i) to (iv) below: (i) the second amino acid from the N terminus is substituted with threonine, valine, isoleucine, leucine, phenylalanine or tyrosine; (ii) the third amino acid from the N terminus is substituted with leucine, phenylalanine, tyrosine, isoleucine or alanine; (iii) the seventh amino acid from the N terminus is substituted with leucine, isoleucine, tyrosine, valine or phenylalanine; and (iv) the C-terminal amino acid is substituted with lysine or arginine. (i) the second amino acid from the N terminus is substituted with threonine, valine, isoleucine, leucine, phenylalanine or tyrosine; (ii) the third amino acid from the N terminus is substituted with leucine, phenylalanine, tyrosine, isoleucine or alanine; (iii) the seventh amino acid from the N terminus is substituted with leucine, isoleucine, tyrosine, valine or phenylalanine; and (iv) the C-terminal amino acid is substituted with lysine or arginine.
A computer-implemented method for performing counterfactual regret minimization, CFR, for strategy searching in strategic interaction between two or more parties by solving an imperfect information game, IIG, wherein the IIG represents cyber-attack prediction and/or prevention, and/or traffic routing, the method comprising: identifying N1 possible actions of a first party in a first state of the first party; sampling a possible action out of the N1 possible actions in the first state of the first party with a first sampling probability; identifying N2 possible actions of the first party in a second state of the first party, wherein the first state of the first party is closer to a beginning state of the IIG representing cyber-attack prediction and/or prevention, and/or traffic routing than the second state of the first party; sampling a possible action out of the N2 possible actions in the second state of the first party with a second sampling probability, wherein the first sampling probability is less than the second sampling probability; and performing the CFR based on the possible actions out of the N1 possible actions in the first state of the first party and the possible action out of the N2 possible actions in the second state of the first party. identifying N1 possible actions of a first party in a first state of the first party; sampling a possible action out of the N1 possible actions in the first state of the first party with a first sampling probability; identifying N2 possible actions of the first party in a second state of the first party, wherein the first state of the first party is closer to a beginning state of the IIG representing cyber-attack prediction and/or prevention, and/or traffic routing than the second state of the first party; sampling a possible action out of the N2 possible actions in the second state of the first party with a second sampling probability, wherein the first sampling probability is less than the second sampling probability; and performing the CFR based on the possible actions out of the N1 possible actions in the first state of the first party and the possible action out of the N2 possible actions in the second state of the first party.
A beverage capsule comprising capsule side walls, a capsule top, and a capsule bottom having a dispensing outlet, that define a chamber for containing a food or beverage precursor ingredient soluble and/or extractable when a fluid is injected inside said chamber under pressure, said capsule further comprising a pressure-sensitive membrane, characterized in that said pressure-sensitive membrane comprises at least one weakened or precut zone defining a non-reclosable opening which: (i) elastically and plastically opens, respectively widens when the fluid pressure inside said capsule reaches a predetermined value between 0.5 and 20 bar relative pressure, preferably between 1.0 and 15 bar, and then (ii) maintains a widen configuration after the fluid pressure within the chamber is released to an atmospheric pressure value, such that the width of said at least one opening does not exceed 1 mm. (i) elastically and plastically opens, respectively widens when the fluid pressure inside said capsule reaches a predetermined value between 0.5 and 20 bar relative pressure, preferably between 1.0 and 15 bar, and then (ii) maintains a widen configuration after the fluid pressure within the chamber is released to an atmospheric pressure value, such that the width of said at least one opening does not exceed 1 mm.
Combination comprising the following 4 constituents: • a powder adhesion agent, • α-glucan oligosaccharide, • at least one oil, and • at least one surfactant, said combination being in powder form, in which the mass percentage of water is comprised from 0 to 10% relative to the total mass of the combination, said adhesion agent, said α-glucan oligosaccharide, and said at least one surfactant being in powder form, said at least one oil being in particular in powder form. • a powder adhesion agent, • α-glucan oligosaccharide, • at least one oil, and • at least one surfactant, said combination being in powder form, in which the mass percentage of water is comprised from 0 to 10% relative to the total mass of the combination, said adhesion agent, said α-glucan oligosaccharide, and said at least one surfactant being in powder form, said at least one oil being in particular in powder form.
Process for thermo-adhesive bonding of semi-finished products, comprising: preparing at least one inner sock; preparing at least one outer sock; preparing at least one membrane with a thermo-adhesive placed on an inner surface and/or on an outer surface of said membrane; fitting the inner sock on a rigid reference shape; fitting the membrane over the rigid reference shape and over the inner sock; fitting the outer sock over the rigid reference shape and over the membrane; heating the outer sock, the membrane and the inner sock arranged on the rigid reference shape until at least partial melting of the thermo-adhesive is determined; cooling the outer sock, the membrane and the inner sock arranged on the rigid reference shape until cross-linking of the thermo-adhesive and the stable union of the membrane with the outer sock and/or inner sock is determined; wherein, during cooling, it is also provided to exert a substantially uniform pressure on the outer sock, on the membrane and on the inner sock arranged on the rigid reference shape to compact said outer sock, membrane and inner sock. preparing at least one inner sock; preparing at least one outer sock; preparing at least one membrane with a thermo-adhesive placed on an inner surface and/or on an outer surface of said membrane; fitting the inner sock on a rigid reference shape; fitting the membrane over the rigid reference shape and over the inner sock; fitting the outer sock over the rigid reference shape and over the membrane; heating the outer sock, the membrane and the inner sock arranged on the rigid reference shape until at least partial melting of the thermo-adhesive is determined; cooling the outer sock, the membrane and the inner sock arranged on the rigid reference shape until cross-linking of the thermo-adhesive and the stable union of the membrane with the outer sock and/or inner sock is determined; wherein, during cooling, it is also provided to exert a substantially uniform pressure on the outer sock, on the membrane and on the inner sock arranged on the rigid reference shape to compact said outer sock, membrane and inner sock.
A remote-receiving circuit for providing and controlling an electric stimulus applied to an animal, the circuit comprising: - an isolated DC/DC converter having a low voltage input powered by an energy source and a high voltage output connected to a storage capacitor suitable to be charged with stimulus energy by said converter; - a collar comprising a first electrode and a second electrode configured to be in contact with the animal for delivering to it high voltage stimulus current and connected to the respective ends of said storage capacitor; - a high voltage current-limiting circuit connected in series with the storage capacitor to control the stimulus current delivered to the animal through the electrodes (5, 6) so that in a first phase, the isolated DC/DC converter charges the storage capacitor to a high voltage, while the current-limiting circuit limits to zero the stimulus current delivered to the animal through the first and second electrodes (5, 6); and in a second phase, while the storage capacitor is discharging, the current-limiting circuit generates a pulsed stimulus current delivered to the animal through the first and second electrodes (5, 6), said current being controlled in duration, peak amplitude and shape. - an isolated DC/DC converter having a low voltage input powered by an energy source and a high voltage output connected to a storage capacitor suitable to be charged with stimulus energy by said converter; - a collar comprising a first electrode and a second electrode configured to be in contact with the animal for delivering to it high voltage stimulus current and connected to the respective ends of said storage capacitor; - a high voltage current-limiting circuit connected in series with the storage capacitor to control the stimulus current delivered to the animal through the electrodes (5, 6) so that in a first phase, the isolated DC/DC converter charges the storage capacitor to a high voltage, while the current-limiting circuit limits to zero the stimulus current delivered to the animal through the first and second electrodes (5, 6); and in a second phase, while the storage capacitor is discharging, the current-limiting circuit generates a pulsed stimulus current delivered to the animal through the first and second electrodes (5, 6), said current being controlled in duration, peak amplitude and shape.
A method of producing a laminated film, which includes a plastic film, an adhesive layer on one of the two surfaces of the plastic film and a protective paper on the adhesive layer, which is detachable from the adhesive layer, in which a paper web used as the protective paper is provided on one of its two surfaces with a first coating, a particulate filler material and an adhesive layer are applied to the first coating and a plastic film is applied to the adhesive layer, wherein the material for the first coating is so selected that the adhesive force between the first coating and the adhesive layer is smaller than the adhesive force between the plastic film and the adhesive layer and the adhesive force between the protective paper and the first coating so that one can detach the cover paper with the first coating non-destructively from the plastic film with the adhesive layer, characterised in that the laminated film is an incision drape for surgical use, in whose production an aqueous dispersion of a contact adhesive is provided, a particulate filler material is provided, the density of which is greater than the density of the aqueous dispersion of the contact adhesive and whose surface is at least partially coated with silver, the filler material is mixed into the aqueous dispersion, the aqueous dispersion containing the filler material is applied to the first coating on the protective paper in order to produce a second coating, in which the filler material precipitates on the first coating, and the second coating is dried in order to remove water from the second coating and to obtain the adhesive layer.
A liquid ejection apparatus, comprising: a liquid ejection unit including a plurality of nozzles and a corresponding plurality of actuators; a drive waveform generation circuit configured to generate a plurality of drive waveforms having different drive timings; and an actuator drive circuit configured to apply a first drive waveform to a first actuator in a liquid ejection operation and a second drive waveform to a second actuator in the liquid ejection operation, wherein the first and second actuators are to be driven at a same nominal time during the liquid ejection operation, the first and second drive waveforms have different drive timings, the first actuator is at a position electrically closer along a predetermined direction to a power supply electrode than is the second actuator, and the actuator drive circuit is configured to set the second drive waveform by reference to the first drive waveform, wherein the second actuator is the closest actuator to the first actuator along the predetermined direction among the plurality of actuators to be driven at the same nominal time as the first actuator. a liquid ejection unit including a plurality of nozzles and a corresponding plurality of actuators; a drive waveform generation circuit configured to generate a plurality of drive waveforms having different drive timings; and an actuator drive circuit configured to apply a first drive waveform to a first actuator in a liquid ejection operation and a second drive waveform to a second actuator in the liquid ejection operation, wherein the first and second actuators are to be driven at a same nominal time during the liquid ejection operation, the first and second drive waveforms have different drive timings, the first actuator is at a position electrically closer along a predetermined direction to a power supply electrode than is the second actuator, and the actuator drive circuit is configured to set the second drive waveform by reference to the first drive waveform, wherein the second actuator is the closest actuator to the first actuator along the predetermined direction among the plurality of actuators to be driven at the same nominal time as the first actuator.
A system for monitoring an operational area, the system comprising: a processor configured to: receive plural data streams, each data stream including a different spatial characteristic of the operational area; generate a three-dimensional, 3D, virtual visualization of the operational area based on observational perspectives associated with the data streams and their associated spatial characteristics; characterized in that the processor is further configured to dynamically prioritize operational sub-regions (310, 320) within the operational area based on the spatial characteristics by applying a weighting criteria to each data stream according to at least a sensor that generated the data stream; and generate a signal encoded with data for verifying the 3D virtual visualization of the operational area including the prioritized operational sub-regions (310, 320). a processor configured to: receive plural data streams, each data stream including a different spatial characteristic of the operational area; generate a three-dimensional, 3D, virtual visualization of the operational area based on observational perspectives associated with the data streams and their associated spatial characteristics; characterized in that the processor is further configured to dynamically prioritize operational sub-regions (310, 320) within the operational area based on the spatial characteristics by applying a weighting criteria to each data stream according to at least a sensor that generated the data stream; and generate a signal encoded with data for verifying the 3D virtual visualization of the operational area including the prioritized operational sub-regions (310, 320).
A method of isolating a T cell that expresses a T cell receptor capable of binding specifically to an antigen presented by a cancer cell in association with an MR1 molecule (Uniprot Q95460), said method comprising the steps of a. providing a preparation of T cells, then b. contacting said preparation of T cells with a cancer cell expressing MR1 in a contacting step, then c. isolating a T cell that is specifically reactive to said cancer cell in an isolation step. a. providing a preparation of T cells, then b. contacting said preparation of T cells with a cancer cell expressing MR1 in a contacting step, then c. isolating a T cell that is specifically reactive to said cancer cell in an isolation step.
An ultraviolet-curable liquid developer comprising a hydrophobic cationically polymerizable liquid monomer, a photopolymerization initiator, a toner particle insoluble in the liquid monomer, and a toner particle dispersing agent, wherein the toner particle comprises a binder resin having an acid value of at least 5 mg KOH/g; the toner particle dispersing agent is a polymer containing at least both a monomer unit represented by general formula below and a monomer unit represented by general formula below; and the toner particle dispersing agent has a monomer unit represented by general formula at a position other than the terminal position: Formula (̵K)̵ in formula, K is a unit having a primary amino group, Formula (̵Q)̵ in formula, Q is a unit having an alkyl group having at least 6 carbons, which may be substituted, a cycloalkyl group having at least 6 carbons, which may be substituted, an alkylene group having at least 6 carbons, which may be substituted, or a cycloalkylene group having at least 6 carbons, which may be substituted.
An electrode catalyst for a fuel cell comprising: (a) a support; (b) metal catalyst particles supported on the support and formed of a catalytically active metal or metal-containing alloy; and (c) an anti-coarsening compound, which is dispersed in at least one region selected from the group consisting of interstitial spaces among the metal catalyst particles and contact sites between the support and the metal catalyst particles, and has a coarsening temperature higher than that of the metal catalyst, characterized in that the anti-coarsening compound is an aluminum phosphate-based compound. (a) a support; (b) metal catalyst particles supported on the support and formed of a catalytically active metal or metal-containing alloy; and (c) an anti-coarsening compound, which is dispersed in at least one region selected from the group consisting of interstitial spaces among the metal catalyst particles and contact sites between the support and the metal catalyst particles, and has a coarsening temperature higher than that of the metal catalyst,
A light exposure sensing system for sensing light exposure of a user, comprising: at least one wearable device; at least two light receivers (20, 22, 23, 24, 25) oriented towards different directions orthogonal to each other and configured to receive light from these different directions, the light receivers (20, 22, 23, 24, 25) being arranged on the at least one wearable device, and a control unit configured to receive light intensity signals from the at least two light receivers (20, 22, 23, 24, 25), wherein the control unit is further configured to determine a ratio of daylight to artificial light (X/Y) based on the light intensities of the light received from the at least two light receivers (20, 22, 23, 24, 25) and based on the relation X / Y = 1 / f * S 2 − S 1 / 1 / f * S 1 − S 2, wherein the higher light intensity of the light intensities received by the at least two light receivers (20, 22, 23, 24, 25) is denoted S1, the lower thereof is denoted S2, and f is the illuminance ratio of vertical to horizontal illuminance from the artificial light, wherein vertical or horizontal illuminance refers to light falling on a vertical or horizontal surface, respectively. at least one wearable device; at least two light receivers (20, 22, 23, 24, 25) oriented towards different directions orthogonal to each other and configured to receive light from these different directions, the light receivers (20, 22, 23, 24, 25) being arranged on the at least one wearable device, and a control unit configured to receive light intensity signals from the at least two light receivers (20, 22, 23, 24, 25), wherein the control unit is further configured to determine a ratio of daylight to artificial light (X/Y) based on the light intensities of the light received from the at least two light receivers (20, 22, 23, 24, 25) and based on the relation X / Y = 1 / f * S 2 − S 1 / 1 / f * S 1 − S 2, wherein the higher light intensity of the light intensities received by the at least two light receivers (20, 22, 23, 24, 25) is denoted S1, the lower thereof is denoted S2, and f is the illuminance ratio of vertical to horizontal illuminance from the artificial light, wherein vertical or horizontal illuminance refers to light falling on a vertical or horizontal surface, respectively.
Network node for providing control information messages to a plurality of user devices, the network node comprising: a processor configured to: determine for each of the plurality of user devices a corresponding check element position of a corresponding check element in a control information message addressed to the user device; a transmitter configured to: transmit a first control signal, CS1, to each of the plurality of user devices, the first control signal, CS1, indicating the determined corresponding check element position; wherein the processor is further configured to compose a control information message M addressed to at least two user devices 300a,...,300z of the plurality of user devices by generating for each of the at least two user devices 300a,...,300z a corresponding check element based on control information d and the identity i z of the user device, and by appending the generated check elements to the control information d in dependence on their determined corresponding check element position; wherein the transmitter is further configured to transmit the control information message M to the at least two user devices 300a,...,300z. a processor configured to: determine for each of the plurality of user devices a corresponding check element position of a corresponding check element in a control information message addressed to the user device; a transmitter configured to: transmit a first control signal, CS1, to each of the plurality of user devices, the first control signal, CS1, indicating the determined corresponding check element position; wherein the processor is further configured to compose a control information message M addressed to at least two user devices 300a,...,300z of the plurality of user devices by generating for each of the at least two user devices 300a,...,300z a corresponding check element based on control information d and the identity i z of the user device, and by appending the generated check elements to the control information d in dependence on their determined corresponding check element position; wherein the transmitter is further configured to transmit the control information message M to the at least two user devices 300a,...,300z.