mhurhangee/ep-ind-claims huggingface dataset:
A user equipment comprising: a controller; and a transceiver; wherein the controller connected with the transceiver is configured to control the user equipment: to perform an initial communication, controlled by a base station, between the base station and the user equipment based on a first modulation and coding scheme, MCS, index table, the first MCS index table including MCS indexes corresponding to modulation schemes up to a 64 quadrature amplitude modulation, QAM; to receive from the base station a radio resource control, RRC, signal indicating a selected MCS index table having been selected from MCS index tables including the first MCS index table and a second MCS index table, the second MCS index table including MCS indexes corresponding to modulation schemes up to a 256 QAM; and to perform a communication between the base station and the user equipment, in accordance with a modulation and coding scheme controlled by the base station, based on the selected MCS index table. a controller; and a transceiver; wherein the controller connected with the transceiver is configured to control the user equipment: to perform an initial communication, controlled by a base station, between the base station and the user equipment based on a first modulation and coding scheme, MCS, index table, the first MCS index table including MCS indexes corresponding to modulation schemes up to a 64 quadrature amplitude modulation, QAM; to receive from the base station a radio resource control, RRC, signal indicating a selected MCS index table having been selected from MCS index tables including the first MCS index table and a second MCS index table, the second MCS index table including MCS indexes corresponding to modulation schemes up to a 256 QAM; and to perform a communication between the base station and the user equipment, in accordance with a modulation and coding scheme controlled by the base station, based on the selected MCS index table. to perform an initial communication, controlled by a base station, between the base station and the user equipment based on a first modulation and coding scheme, MCS, index table, the first MCS index table including MCS indexes corresponding to modulation schemes up to a 64 quadrature amplitude modulation, QAM; to receive from the base station a radio resource control, RRC, signal indicating a selected MCS index table having been selected from MCS index tables including the first MCS index table and a second MCS index table, the second MCS index table including MCS indexes corresponding to modulation schemes up to a 256 QAM; and to perform a communication between the base station and the user equipment, in accordance with a modulation and coding scheme controlled by the base station, based on the selected MCS index table.
A curved display device comprising: a first substrate and a second substrate facing each other and having a curvature; a liquid crystal layer arranged between the first substrate and the second substrate; and two polarizing layers (120, 230) including: a first polarizing layer; and a second polarizing layer, wherein the first substrate is thinner than the second substrate, wherein the first polarizing layer is positioned to face a second surface of the first substrate, the second surface of the first substrate being opposite to a first surface of the first substrate which faces the liquid crystal layer; and wherein the second polarizing layer is arranged between the liquid crystal layer and a first surface of the second substrate that faces the liquid crystal layer, the second substrate further including a second surface which is opposite to the first surface of the second substrate. a first substrate and a second substrate facing each other and having a curvature; a liquid crystal layer arranged between the first substrate and the second substrate; and two polarizing layers (120, 230) including: a first polarizing layer; and a second polarizing layer, wherein the first substrate is thinner than the second substrate, wherein the first polarizing layer is positioned to face a second surface of the first substrate, the second surface of the first substrate being opposite to a first surface of the first substrate which faces the liquid crystal layer; and wherein the second polarizing layer is arranged between the liquid crystal layer and a first surface of the second substrate that faces the liquid crystal layer, the second substrate further including a second surface which is opposite to the first surface of the second substrate.
A method for the production of nitric oxide by means of the photolytic cleavage of a precursor, characterized in that the cleavage of the precursor that releases nitric oxide under the influence of electromagnetic radiation is carried out in the presence of at least one system that degrades or neutralizes polyoxidized nitrogen oxides, oxygen radical anions or hydroxyl radicals.
A computer-implemented method for image reconstruction for medical imaging of a subject, the method comprising: - obtaining a lookup table of pre-computed sets of data, each pre-computed set of data comprises a model-image m * from a sample M * and a corresponding data-image d *, the model-image m * is a realization from a prior ρ ( m), the prior ρ ( m) is a statistical model based on expert data, each model-image m * is a representation of an image of one, or more, pixels, the data-image d * is determined based on the model-image m * in the same set of data, each data-image d * is a representation of one, or more, pixels, - obtaining a PET image and dividing the PET image into subset-images d ss each subset-image d ss is a representation of one, or more, pixels, - using for each subset-image d ss from the PET image an extended rejection sampler to accept model-images m * from the lookup table representing the posterior distribution given the subset-image d ss, and - determining and outputting a representation image based on the sample of the posterior distribution. - obtaining a lookup table of pre-computed sets of data, each pre-computed set of data comprises a model-image m * from a sample M * and a corresponding data-image d *, the model-image m * is a realization from a prior ρ ( m), the prior ρ ( m) is a statistical model based on expert data, each model-image m * is a representation of an image of one, or more, pixels, the data-image d * is determined based on the model-image m * in the same set of data, each data-image d * is a representation of one, or more, pixels, - obtaining a PET image and dividing the PET image into subset-images d ss each subset-image d ss is a representation of one, or more, pixels, - using for each subset-image d ss from the PET image an extended rejection sampler to accept model-images m * from the lookup table representing the posterior distribution given the subset-image d ss, and - determining and outputting a representation image based on the sample of the posterior distribution.
Method for producing a connection assembly of a flat body, comprising the following steps: - providing a flat body having at least one flat substrate (3, 4) having at least one electrically conductive structure which is fixedly connected to the substrate (3, 4), to which a flat strip conductor of a flat ribbon cable is electrically connected, - electrically connecting a round conductor of a round cable to the flat strip conductor which is electrically connected to the electrically conductive structure for forming a connection zone, characterized by - embedding the connection zone in a sealing mass composite which is surrounded by a connection housing for the air-and water-tight shielding of the connection zone from the surroundings, wherein the sealing mass composite is formed by bringing together and fusing a plurality of separate sealing mass portions (23, 24) of a self-fusing sealing compound, wherein a sealing mass portion (23, 24) is respectively accommodated in housing parts (20, 21) of the connection housing in such a way that the sealing mass portions (23, 24) in the assembled connection housing can fuse to the sealing mass composite, wherein the sealing mass portions (23, 24) in the housing parts (20, 21) are brought into contact with one another as a result of the exertion of an external mechanical force by elastic deformation of the connection housing. - providing a flat body having at least one flat substrate (3, 4) having at least one electrically conductive structure which is fixedly connected to the substrate (3, 4), to which a flat strip conductor of a flat ribbon cable is electrically connected, - electrically connecting a round conductor of a round cable to the flat strip conductor which is electrically connected to the electrically conductive structure for forming a connection zone, - embedding the connection zone in a sealing mass composite which is surrounded by a connection housing for the air-and water-tight shielding of the connection zone from the surroundings, wherein the sealing mass composite is formed by bringing together and fusing a plurality of separate sealing mass portions (23, 24) of a self-fusing sealing compound,
An organic electronic device comprising an organic semiconductor layer and passivation layer stack provided on the OSC layer, characterized in that the passivation layer stack comprises a first layer that is deposited on the OSC layer and comprises a polycycloolefinic polymer comprising pendant fluorinated groups, and a second layer that is deposited on the first layer and comprises a fluoropolymer, and a third layer that is deposited on the second layer and comprises a polycycloolefinic polymer comprising pendant fluorinated groups and pendant crosslinkable groups. a first layer that is deposited on the OSC layer and comprises a polycycloolefinic polymer comprising pendant fluorinated groups, and a second layer that is deposited on the first layer and comprises a fluoropolymer, and a third layer that is deposited on the second layer and comprises a polycycloolefinic polymer comprising pendant fluorinated groups and pendant crosslinkable groups.
A method for producing a gas separation membrane, characterized by comprising the following steps (a), (b), (c), and (d): step (a): a step of treating the surfaces of silica nanoparticles dispersed in a first solvent with a reactive functional group-containing compound, while the particles are being dispersed in the solvent, to thereby prepare a first solvent dispersion of reactive functional group-modified silica nanoparticles; step (b): a step of replacing the dispersion medium of the first solvent dispersion of reactive functional group-modified silica nanoparticles prepared in step (a) with a second solvent, whereby the second solvent is added to the first solvent dispersion and the first solvent is removed, and then reacting the reactive functional group-modified silica nanoparticles with a dendrimer-forming monomer or a hyperbranched polymer-forming monomer in the presence of the second solvent so that a dendrimer or a hyperbranched polymer is bound to the reactive functional group, to thereby prepare dendrimer- or hyperbranched polymer-bound silica nanoparticles; step (c): a step of mixing the dendrimer- or hyperbranched polymer-bound silica nanoparticles prepared in step (b) with a matrix resin; and step (d): a step of applying the mixture prepared in step (c) to a substrate, and then removing the solvent, wherein the first solvent is at least one species selected from among water and C1 to C4 alcohols and the second solvent has hydrophobicity higher than that of the first solvent and is at least one species selected from among N-methylpyrrolidone, dimethylacetamide, dimethylformamide, and γ-butyrolactone. step (a): a step of treating the surfaces of silica nanoparticles dispersed in a first solvent with a reactive functional group-containing compound, while the particles are being dispersed in the solvent, to thereby prepare a first solvent dispersion of reactive functional group-modified silica nanoparticles; step (b): a step of replacing the dispersion medium of the first solvent dispersion of reactive functional group-modified silica nanoparticles prepared in step (a) with a second solvent, whereby the second solvent is added to the first solvent dispersion and the first solvent is removed, and then reacting the reactive functional group-modified silica nanoparticles with a dendrimer-forming monomer or a hyperbranched polymer-forming monomer in the presence of the second solvent so that a dendrimer or a hyperbranched polymer is bound to the reactive functional group, to thereby prepare dendrimer- or hyperbranched polymer-bound silica nanoparticles; step (c): a step of mixing the dendrimer- or hyperbranched polymer-bound silica nanoparticles prepared in step (b) with a matrix resin; and step (d): a step of applying the mixture prepared in step (c) to a substrate, and then removing the solvent, wherein the first solvent is at least one species selected from among water and C1 to C4 alcohols and the second solvent has hydrophobicity higher than that of the first solvent and is at least one species selected from among N-methylpyrrolidone, dimethylacetamide, dimethylformamide, and γ-butyrolactone.
A method of examining a sample using a combined charged-particle microscope and Raman spectroscope, whereby: - Said microscope irradiates a sample with a beam of charged particles so as to image a region of the sample; - Said spectroscope employs a light spot of width D to radiatively stimulate and spectroscopically analyze a portion of the sample, which method comprises the following steps: - Using the charged-particle microscope to identify a feature of interest in said region; - Choosing said portion that is analyzed by the Raman spectroscope to comprise this feature, characterized in that: - Said feature has at least one lateral dimension smaller than D; - Prior to analysis of said feature using the Raman spectroscope, an in situ surface modification technique is used to cause positive discrimination of an expected Raman signal from said feature relative to an expected Raman signal from said portion other than said feature. - Said microscope irradiates a sample with a beam of charged particles so as to image a region of the sample; - Said spectroscope employs a light spot of width D to radiatively stimulate and spectroscopically analyze a portion of the sample, - Using the charged-particle microscope to identify a feature of interest in said region; - Choosing said portion that is analyzed by the Raman spectroscope to comprise this feature, - Said feature has at least one lateral dimension smaller than D; - Prior to analysis of said feature using the Raman spectroscope, an in situ surface modification technique is used to cause positive discrimination of an expected Raman signal from said feature relative to an expected Raman signal from said portion other than said feature.
A waterproof and vapor-permeable sole for shoes, comprising: - a first contoured element that has at least one hollow lower portion in the plantar region, delimited by a border and provided with at least one through opening at right angles to the ground resting arrangement, which in turn is delimited by a margin that is internal to said border, - at least one second contoured and flat element, which is joined in a lower region with respect to said first element with a perimetric margin thereof to said margin in the points of mutual contact and the upper surface of which is provided with recesses and protrusions that define passages for air, vapor and liquids, - at least one functional element substantially in sheet form, which is waterproof and vapor-permeable and is joined in an upper region so as to provide a seal to said first element along said margin, said second element having a shorter extension than the respective said hollow lower portion and defining with said border a slot that surrounds it and defining with said margin, in the regions of no contact, extensions for said passages toward the outside, connecting them to said slot. - a first contoured element that has at least one hollow lower portion in the plantar region, delimited by a border and provided with at least one through opening at right angles to the ground resting arrangement, which in turn is delimited by a margin that is internal to said border, - at least one second contoured and flat element, which is joined in a lower region with respect to said first element with a perimetric margin thereof to said margin in the points of mutual contact and the upper surface of which is provided with recesses and protrusions that define passages for air, vapor and liquids, - at least one functional element substantially in sheet form, which is waterproof and vapor-permeable and is joined in an upper region so as to provide a seal to said first element along said margin,
An unmanned aerial vehicle, "UAV", comprising: a perimeter frame, including: a front portion including a front wing configured to provide lift to the UAV when the UAV is moving in a direction that includes a horizontal component; a rear portion including a first rear wing configured to provide lift to the UAV when the UAV is moving in the direction that includes the horizontal component, the rear portion further including a second rear wing positioned vertically above the first rear wing; a first side rail joining the front portion and the rear portion; a second side rail joining the front portion and the rear portion; and wherein the perimeter frame is substantially polygonal in shape; a central frame positioned within the substantially polygonal shape of the perimeter frame and coupled to an interior of the perimeter frame; a plurality of lifting motors coupled to the central frame; and a plurality of lifting propellers, each propeller coupled to a motor of the plurality of lifting motors, wherein each of the plurality of lifting propellers are within the substantially polygonal shape of the perimeter frame. a perimeter frame, including: a front portion including a front wing configured to provide lift to the UAV when the UAV is moving in a direction that includes a horizontal component; a rear portion including a first rear wing configured to provide lift to the UAV when the UAV is moving in the direction that includes the horizontal component, the rear portion further including a second rear wing positioned vertically above the first rear wing; a first side rail joining the front portion and the rear portion; a second side rail joining the front portion and the rear portion; and wherein the perimeter frame is substantially polygonal in shape; a front portion including a front wing configured to provide lift to the UAV when the UAV is moving in a direction that includes a horizontal component; a rear portion including a first rear wing configured to provide lift to the UAV when the UAV is moving in the direction that includes the horizontal component, the rear portion further including a second rear wing positioned vertically above the first rear wing; a first side rail joining the front portion and the rear portion; a second side rail joining the front portion and the rear portion; and wherein the perimeter frame is substantially polygonal in shape; a central frame positioned within the substantially polygonal shape of the perimeter frame and coupled to an interior of the perimeter frame; a plurality of lifting motors coupled to the central frame; and a plurality of lifting propellers, each propeller coupled to a motor of the plurality of lifting motors, wherein each of the plurality of lifting propellers are within the substantially polygonal shape of the perimeter frame.
A network module arranged to perform encrypted communication over an automotive communications network; the network module being arranged to: receive a message from an timestamp distribution node of the communications network containing a timestamp value, and extract the timestamp value from the received message; wherein the network module comprises an encryption key generation component arranged to receive the extracted timestamp value and generate at least one updated encryption key for performing encrypted communication based at least on the extracted timestamp value;. characterised in that the network module is arranged to receive the message containing the timestamp value from the timestamp distribution node as a part of a synchronisation process, and the received message containing the timestamp value comprises: a follow up message of a two-step synchronisation process or a synchronisation message of a one-step synchronisation process. receive a message from an timestamp distribution node of the communications network containing a timestamp value, and extract the timestamp value from the received message; a follow up message of a two-step synchronisation process or a synchronisation message of a one-step synchronisation process.
A relay node, configured to receive, from an access node: a relay downlink control information, R-DCI, block in a plurality of resource blocks and a number of orthogonal frequency division multiplexing, OFDM, symbols, and a downlink grant on a physical downlink shared channel, PDSCH, resource block for relay data; characterised in that the R-DCI block is based, at least in part, on determining a number N conveyed in a relay physical control format indicator channel, R-PCFICH, contained in the first OFDM symbol of the R-DCI block, where the number N designates the number of OFDM symbols contained by the R-DCI block and; wherein the R-DCI block is conveyed in the relay physical control format indicator channel, R-PCFICH, wherein the R-DCI block comprises the number N of OFDM symbols, and wherein the number N is conveyed in the R-PCFICH. a relay downlink control information, R-DCI, block in a plurality of resource blocks and a number of orthogonal frequency division multiplexing, OFDM, symbols, and a downlink grant on a physical downlink shared channel, PDSCH, resource block for relay data; characterised in that the R-DCI block is based, at least in part, on determining a number N conveyed in a relay physical control format indicator channel, R-PCFICH, contained in the first OFDM symbol of the R-DCI block, where the number N designates the number of OFDM symbols contained by the R-DCI block and; wherein the R-DCI block is conveyed in the relay physical control format indicator channel, R-PCFICH, wherein the R-DCI block comprises the number N of OFDM symbols, and wherein the number N is conveyed in the R-PCFICH.
Eco-friendly coffin, intended to facilitate the rapid mixing of the remains of the deceased, previously converted into small particles, with the environment, including both earthy and aquatic environments, characterized in that it comprises a box formed by two halves (1 a) joined together and made of a biodegradable, compostable, water-soluble and nontoxic material that is a mixture of polyvinyl alcohol (PVOH), additives and fillers, and further comprising at least one fill hole with a cap.
Method of treatment for avoiding or limiting the charging effects on a support formed by an insulating substrate or a resin and intended to be subjected to electron irradiation, characterized in that it comprises: - a step of depositing a non-conductive sacrificial layer (203, 203'), - a step of depositing a conductive layer (204, 204') on said sacrificial layer (203, 203'), said sacrificial layer and conductive layer being constituted by two different materials, - a step of electron irradiation, - a step of eliminating the sacrificial layer (203, 203'). - a step of depositing a non-conductive sacrificial layer (203, 203'), - a step of depositing a conductive layer (204, 204') on said sacrificial layer (203, 203'), said sacrificial layer and conductive layer being constituted by two different materials, - a step of electron irradiation, - a step of eliminating the sacrificial layer (203, 203').