mhurhangee/ep-ind-claims huggingface dataset:
A method for capturing biological species from a biological tissue, comprising: a) application of a biological tissue onto a capture support, the capture support being capable of selectively capturing at least one biological species, referred to as the biological species of interest; the method being characterized in that it comprises the following steps b) deposition of a lysis reagent onto the biological tissue; c) bringing of the lysis reagent thus deposited into contact with a solvent, so as to form droplets, spaced out from one another, at the surface of the tissue, the droplets comprising the lysis reagent solubilized in the solvent; d) formation of lysis sites (10 1), each lysis site corresponding to a portion of the tissue extending between a droplet and the capture support and, in each lysis site, lysis of the biological tissue by the lysis reagent solubilized by the solvent, the lysis bringing about a release and then a capture of biological species of interest of the tissue by the capture support; e) rinsing of the capture support, in order to remove the uncaptured biological species. a) application of a biological tissue onto a capture support, the capture support being capable of selectively capturing at least one biological species, referred to as the biological species of interest; the method being characterized in that it comprises the following steps b) deposition of a lysis reagent onto the biological tissue; c) bringing of the lysis reagent thus deposited into contact with a solvent, so as to form droplets, spaced out from one another, at the surface of the tissue, the droplets comprising the lysis reagent solubilized in the solvent; d) formation of lysis sites (10 1), each lysis site corresponding to a portion of the tissue extending between a droplet and the capture support and, in each lysis site, lysis of the biological tissue by the lysis reagent solubilized by the solvent, the lysis bringing about a release and then a capture of biological species of interest of the tissue by the capture support; e) rinsing of the capture support, in order to remove the uncaptured biological species.
A sight, characterized by comprising a housing, a rangefinder assembly, a display screen provided in the housing and electrically connected to the rangefinder assembly, as well as an objective lens set, an image inverter set, a reticle set, and an eyepiece set provided in the housing and sequentially arranged from an object side to an eye side, wherein the reticle set comprises a first prism and a second prism cemented to each other; a reflective film is provided on a first cemented plane of the first prism and the second prism; the first prism has a first plane provided on an imaging plane; the second prism has a second plane perpendicular to the first plane; a light-emitting plane of the display screen is attached to the second plane; and the reflective film is configured to reflect light from the display screen to the eye side, characterized in that the first plane of the first prism is provided with a reticle pattern.
Hot-melt adhesive comprising a copolymer comprising a first block and a second block, wherein - the first block is an amorphous copolymer of lactic acid and a further polymerisable monomer and - the second block is a polylactic acid polymer selected from poly-L-lactic acid (PLLA) and poly-D-lactic acid (PDLA), the first block having a number average molecular weight of at least 0.5 kg/mol and the second block having a number average molecular weight of at least 1 kg/mol, with Mn being determined by Relative Gel permeation chromatography using chloroform as solvent and running phase, using polystyrene as a reference, with detection via Refractive Index. - the first block is an amorphous copolymer of lactic acid and a further polymerisable monomer and - the second block is a polylactic acid polymer selected from poly-L-lactic acid (PLLA) and poly-D-lactic acid (PDLA),
A housing for a powdered cosmetic product, comprising at least a cover and a base which are mounted so as to be movable with respect to each other between at least a closed position and an open position of the housing, wherein the base comprises a cavity intended to receive said powdered cosmetic product, which is closed by an opening-closing device configured to selectively deliver said powdered cosmetic product, said opening-closing device comprising at least first means which, comprising first orifices in communication with the cavity, are secured to the base, and second means which, comprising second orifices, are mounted so as to be movable in rotation with respect to the first means between at least a sealing position and a position of use, characterised in that the first means comprise at least a first flexible membrane and the second means comprise at least a second flexible membrane.
Tap with mixing battery for use in a connection system for use as a high-pressure or low-pressure fitting, comprising: a water outflow, a battery body, and a mixing cartridge with an adjustment lever, wherein the water outflow is arranged on the battery body, wherein the battery body has an accommodating space for accommodating the mixing cartridge, wherein the bottom of the accommodating space comprises a first hole, a second hole and a third hole, which extend as channels through the battery body and are suitable for being connected at the outer side of the battery body facing away from the accommodating space, at an associated first connection, second connection and third connection, to water lines, wherein the first channel, which is connected to the first hole, is additionally connected to the water outflow via a first outlet, characterized in that the third channel, which is connected to the third hole, is additionally connected to the water outflow via a second outlet, wherein the first outlet and the second outlet are arranged in the respective channels in such a way that either the first outlet or the second outlet can be bridged by an insert so that liquid can flow between the connection and the corresponding hole without exiting through the outlet. a water outflow, a battery body, and a mixing cartridge with an adjustment lever, wherein the water outflow is arranged on the battery body, wherein the battery body has an accommodating space for accommodating the mixing cartridge, wherein the bottom of the accommodating space comprises a first hole, a second hole and a third hole, which extend as channels through the battery body and are suitable for being connected at the outer side of the battery body facing away from the accommodating space, at an associated first connection, second connection and third connection, to water lines, wherein the first channel, which is connected to the first hole, is additionally connected to the water outflow via a first outlet, characterized in that the third channel, which is connected to the third hole, is additionally connected to the water outflow via a second outlet, wherein the first outlet and the second outlet are arranged in the respective channels in such a way that either the first outlet or the second outlet can be bridged by an insert so that liquid can flow between the connection and the corresponding hole without exiting through the outlet.
A humanized antibody that specifically binds NKG2A, comprising a CDR-H1 corresponding to residues 31-35 of SEQ ID NO:5 and a CDR-H3 corresponding to residues 95-102 of SEQ ID NO:5, wherein the CDR-H2 comprises residues 50-59 of SEQ ID NO:5, wherein at least the 6 C-terminal amino acid residues of the CDR-H2 are the same as those in the variable heavy domain human acceptor sequence, wherein the VH domain human acceptor framework has 70% or more sequence identity to SEQ ID NO:5 and is free of any back-mutations and wherein said antibody comprises a CDR-L1 corresponding to residues 24-34 of SEQ ID NO:4, a CDR-L2 corresponding to residues 50-56 of SEQ ID NO:4, and a CDR-L3 corresponding to residues 89-97 of SEQ ID NO:4, wherein the positions of amino acids are according to Kabat.
A message sending method performed by a network device, comprising: generating (S31, S41) a first message (S32, S42), wherein the first message comprises K pieces of indication information, the K pieces of indication information correspond to M pieces of first information, each of the K pieces of indication information corresponds to one or more services, and is used to indicate whether one of the M pieces of first information supports the one or more services, the first information is cell information or frequency information, M is a positive integer, and K is an integer greater than or equal to M, and wherein the one or more services comprise at least one of the following: an ultra-reliable low-latency communication URLLC service, an enhanced mobile broadband eMBB service, a massive machine-type communications mMTC service, and a vehicle-to-everything V2X service; sending the first message in a first cell to a terminal device; and the method being characterised in that it further comprises: sending a system information block SIB 1 message in the first cell, wherein the SIB 1 message comprises a cellreservedforotheruse field; and wherein one of the cellreservedforotheruse field and the first message is used by the terminal device to determine whether to camp on the first cell. generating (S31, S41) a first message (S32, S42), wherein the first message comprises K pieces of indication information, the K pieces of indication information correspond to M pieces of first information, each of the K pieces of indication information corresponds to one or more services, and is used to indicate whether one of the M pieces of first information supports the one or more services, the first information is cell information or frequency information, M is a positive integer, and K is an integer greater than or equal to M, and wherein the one or more services comprise at least one of the following: an ultra-reliable low-latency communication URLLC service, an enhanced mobile broadband eMBB service, a massive machine-type communications mMTC service, and a vehicle-to-everything V2X service; sending the first message in a first cell to a terminal device; and the method being characterised in that it further comprises: sending a system information block SIB 1 message in the first cell, wherein the SIB 1 message comprises a cellreservedforotheruse field; and wherein one of the cellreservedforotheruse field and the first message is used by the terminal device to determine whether to camp on the first cell. sending a system information block SIB 1 message in the first cell, wherein the SIB 1 message comprises a cellreservedforotheruse field; and wherein one of the cellreservedforotheruse field and the first message is used by the terminal device to determine whether to camp on the first cell.
A method for producing an electrically conductive direct bond between a bonding side of a first substrate and a bonding side of a second substrate in a workspace that can be closed, gas-tight, against the environment and can be supplied with a vacuum, in which a) at least one of the bonding sides is modified in a plasma chamber and subsequently the at least one modified bonding side is bonded with the bonding side of the second substrate in a bonding chamber and/or b) at least one of the bonding sides is modified in a bonding/plasma chamber and subsequently the at least one modified bonding side is bonded with the bonding side of the second substrate in the bonding/plasma chamber, characterised in that the modification of at least one of the bonding sides takes place by changing the stoichiometry of an oxide layer on at least one of the bonding sides, and wherein one or more of the following specified reducing gases is introduced into the plasma chamber for the modification: - Hydrogen, - Nitrogen oxides, - Carbon monoxide, - Methane, and wherein the reducing gas is mixed with one or more of the following specified inert gases: - Xenon, - Argon, - Helium, - Nitrogen, - Carbon dioxide. a) at least one of the bonding sides is modified in a plasma chamber and subsequently the at least one modified bonding side is bonded with the bonding side of the second substrate in a bonding chamber and/or b) at least one of the bonding sides is modified in a bonding/plasma chamber and subsequently the at least one modified bonding side is bonded with the bonding side of the second substrate in the bonding/plasma chamber, - Hydrogen, - Nitrogen oxides, - Carbon monoxide, - Methane, - Xenon, - Argon, - Helium, - Nitrogen, - Carbon dioxide.
A spatial light modulator comprising: a first reflective layer; a second reflective layer comprising a plurality of grating structures spaced apart from each other; a resonance layer provided between the first reflective layer and the second reflective layer; and further characterized by a filling layer having a heat transfer coefficient of 100 mW/mK or less, and being in contact with an upper surface of the resonance layer and surrounding at least one grating structure of the plurality of grating structures; wherein each of the plurality of grating structures comprises a first doped semiconductor layer, an intrinsic conductor layer, and a second doped semiconductor layer; and wherein the plurality of grating structures comprise: grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group. a first reflective layer; a second reflective layer comprising a plurality of grating structures spaced apart from each other; a resonance layer provided between the first reflective layer and the second reflective layer; and further characterized by a filling layer having a heat transfer coefficient of 100 mW/mK or less, and being in contact with an upper surface of the resonance layer and surrounding at least one grating structure of the plurality of grating structures; wherein each of the plurality of grating structures comprises a first doped semiconductor layer, an intrinsic conductor layer, and a second doped semiconductor layer; and wherein the plurality of grating structures comprise: grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group. grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group.
A rope exercise simulation device (100, 200, 300) comprising: a handle and an elongate housing with at least one internally located displaceable weight, the housing extends substantially orthogonally with respect to an axis of the handle; and at least one weight moving between ends of the housing act against one or more resiliently deformable means; wherein the elongate housing is rotatable with respect to an axis of the handle by means of a rotating joint; and a locking mechanism is provided to selectively lock the elongate housing and the handle to prevent relative rotation of the handle and elongate housing.
Method for authenticating a data set between a proving unit and a verifying unit in data processing, comprising the following steps: a) the data set is transmitted from the proving unit to the verifying unit in unencrypted form in such a way that it is available in unencrypted form to both units (1, 2) after transmission, b) the verifying unit generates at least one data element, c) the verifying unit encrypts the at least one data element in a first cryptographic encryption method using a public key of the proving unit, which public key is known to the verifying unit, d) the verifying unit transmits the at least one encrypted data element to the proving unit, e) the proving unit decrypts the at least one encrypted data element in a first decryption method, assigned to the first encryption method, using a private key known only to it, f) the proving unit calculates, from the data set to be authenticated, in a second cryptographic method, an authenticator dependent on the at least one data element, g) the proving unit transmits the authenticator to the verifying unit, h) the verifying unit checks the authenticator with the aid of an authentication checking algorithm, which is assigned to the second cryptographic method, using the at least one unencrypted data element and the data set, i) depending on the checking result, the verifying unit accepts the data set as transmitted by the proving unit. a) the data set is transmitted from the proving unit to the verifying unit in unencrypted form in such a way that it is available in unencrypted form to both units (1, 2) after transmission, b) the verifying unit generates at least one data element, c) the verifying unit encrypts the at least one data element in a first cryptographic encryption method using a public key of the proving unit, which public key is known to the verifying unit, d) the verifying unit transmits the at least one encrypted data element to the proving unit, e) the proving unit decrypts the at least one encrypted data element in a first decryption method, assigned to the first encryption method, using a private key known only to it, f) the proving unit calculates, from the data set to be authenticated, in a second cryptographic method, an authenticator dependent on the at least one data element, g) the proving unit transmits the authenticator to the verifying unit, h) the verifying unit checks the authenticator with the aid of an authentication checking algorithm, which is assigned to the second cryptographic method, using the at least one unencrypted data element and the data set, i) depending on the checking result, the verifying unit accepts the data set as transmitted by the proving unit.
A composition for abatement of heavy metals and dioxins in flue gases comprising a solid sorption material which is a mineral compound, preferably non-functionalized, characterized in that said mineral compound is selected from among phyllosilicates of the « palygorskite-sepiolite » group according to the Dana classification, said mineral compound being doped with a halide salt and keeping its initial crystalline structure, said halide salt being present in an amount on a dry basis ranging from 0.5% to 20% by weight of based on the weight of the composition.
A wireless communication system performing wireless communication between a transmitter device and a receiver device according to a multicarrier multiplexing transmission method, wherein said transmitter device includes an error correction coding unit that performs error correction coding on transmitting data so as to generate error-correction coded bits, a first modulation unit that modulates the error-correction coded input bits so as to generate a plurality of modulation symbols, a second modulation unit that allocates block-coded modulation symbols to sub-carriers so as to generate modulation signals, and a transmission unit that generates and outputs transmitting signals based on modulation signals, while said receiver device includes a reception unit that receives signals transmitted thereto, a second demodulation unit that retrieves modulation symbols, which are subjected to block coding in units of sub-carriers, from received signals, a first demodulation unit that performs demodulation, which is reverse to modulation of the first modulation unit, on block-decoded modulation symbols, an error correction decoding unit that performs error correction and decoding, which is reverse to the error correction coding of the error correction coding unit, by use of demodulated values, thus reproducing original data subjected to transmission, a decision unit that identifies a frequency band of the sub-carriers having zero amplitude in transmitting signals generated by the transmission unit based on transmitted data, and a detection unit that detects an interference signal representative of a signal having the frequency band of a sub-carrier having zero amplitude, identified by the decision unit, among received signals transmitted thereto, the wireless communication system characterized in that it further comprises: - a block coding unit, included in the transmitter device, that performs block coding on the plurality of modulation symbols, a part of which becomes zero in amplitude, and, - a block decoding unit, included in the receiver device, that performs block decoding, which is reverse to block coding of the block coding unit, on block-coded modulation symbols. - a block coding unit, included in the transmitter device, that performs block coding on the plurality of modulation symbols, a part of which becomes zero in amplitude, and, - a block decoding unit, included in the receiver device, that performs block decoding, which is reverse to block coding of the block coding unit, on block-coded modulation symbols.
An alkaline rechargeable battery comprising an electrode assembly and an alkaline electrolyte enclosed in a hermetically-sealed container, the electrode assembly being formed of a positive electrode and a negative electrode stacked with a separator interposed between, wherein the positive electrode holds a positive electrode mixture containing positive-electrode active material particles formed primarily of nickel hydroxide, and a positive-electrode additive distributed between the positive-electrode active material particles, the positive-electrode additive being at least one substance selected from a group consisting of aluminum and aluminum compounds, where the amount U of the positive-electrode additive in parts by weight relative to 100 parts by weight of the positive-electrode active material particles satisfies 0.01 ≤ U < 1.5, and Li is present in the form of LiOH within the alkaline electrolyte of the battery characterized in that Li is further present within the battery in the positive-electrode active material particles, wherein the positive-electrode active material particles each comprise a base particle formed primarily of nickel hydroxide, coated with a conductive layer of a Co compound containing Li incorporated through the alkaline treatment of the particle with LiOH where the amount of Li present within the alkaline rechargeable battery and localized to the positive electrode, measured by disassembling the battery, taking out the positive electrode, the separator, and the negative electrode, dissolving them in nitric acid, and subjecting the resulting solution to analysis with an Inductively Coupled Plasma Atomic Emission Spectrometer (ICP instrument) to determine the amount of LiOH present by using the calibration curve method, is between 20 and 30 mg/Ah in terms of weight of LiOH per unit positive-electrode capacity 1 Ah.