mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: obtaining, by a user equipment, UE, a resource element, RE, configuration, wherein an RE indicated by the RE configuration is a subset of the REs available for sending a channel state information reference signal, CSI-RS, and is the RE onto which a data symbol can be mapped; and receiving, by the UE, according to the RE configuration, the data symbol that is sent by a base station on the RE indicated by the RE configuration; characterized in that the obtaining, by the UE, the RE configuration comprises: receiving, by the UE, higher layer signaling that carries multiple RE configurations and corresponding indexes and is sent by the base station; receiving, by the UE, dynamic signaling that carries a first index corresponding to the RE configuration and is sent by the base station; and obtaining, by the UE, according to the first index, the RE configuration from an RE configuration set that comprises the multiple RE configurations. obtaining, by a user equipment, UE, a resource element, RE, configuration, wherein an RE indicated by the RE configuration is a subset of the REs available for sending a channel state information reference signal, CSI-RS, and is the RE onto which a data symbol can be mapped; and receiving, by the UE, according to the RE configuration, the data symbol that is sent by a base station on the RE indicated by the RE configuration; receiving, by the UE, higher layer signaling that carries multiple RE configurations and corresponding indexes and is sent by the base station; receiving, by the UE, dynamic signaling that carries a first index corresponding to the RE configuration and is sent by the base station; and obtaining, by the UE, according to the first index, the RE configuration from an RE configuration set that comprises the multiple RE configurations.
Electrolytic cell for generating hydrogen through electrolysis of water comprising an anodic compartment and a cathode compartment separated by a solid polymer electrolyte alkaline membrane, said anodic compartment comprising a positive electrode or anode at least partially submerged into a layer of water and said cathode compartment comprising a negative electrode or cathode, said cell being comprised between a first closing plate and a second closing plate, a tie-rod being provided at a central portion of said first closing plate, said tie-rod passing through said first closing plate, said cell and said second closing plate, a central collector for conveying the hydrogen generated in said cathode compartment being coaxially arranged in respect to said tie-rod, characterized in that said central collector communicates with said cathode compartment through an opening obtained on said tie-rod, said cathode and said anode are respectively made as a single body such that the surfaces of the respective end portions of said cathode and said anode respectively arranged at a peripheral region and at a central region of said cell are adapted to undergo machining for precision finishing operations so as to make said surfaces adapted to house one or more seals to withstand high operating pressures generated during the generation of hydrogen.
A medical device comprising a body for blood vessel compression and a holding element for attaching the body to a patient's limb at a contact site of the body with the patient's limb and a fastening means for holding the device in a desirable position on the patient's limb, wherein the fastening means are situated on the holding element, and wherein the body comprises a first compression area for applying the compression force to the blood vessel at the contact site situated within the first compression area, said first compression area being situated at the outer surface of the body, a second compression area through which the body is pressed with the holding element against patient's limb, and a third compression area adapted to be pressed manually for compression control during application of the device onto the patient's limb, said third compression area being situated inside the body, characterized in that the body has an elongated cylindrical-like shape that is hollow and has endings being open-ended the holding element is a strip for attaching the body to a patient's limb by wrapping it around the patient's limb and the body at least once, and wherein the holding element is attached to the body in the proximity of the first compression area.
A switched mode power supply comprising a first rectifying element for providing a DC voltage from a mains voltage, a transformer with a primary winding and an auxiliary winding, said primary winding being coupled to the first rectifying element and to a switching transistor, a charge capacitor, a start-up circuit (R5-R7) arranged between the first rectifying element and the charge capacitor, a second rectifying element arranged between said auxiliary winding and said charge capacitor for providing a supply voltage (Vcc) for said switching transistor, and a protection circuit, characterized in that the protection circuit comprises a clamping circuit coupled in parallel to said charge capacitor, the clamping circuit comprising a switching element and a threshold circuit (D24, R38) coupled to the control electrode of the switching element for reducing said supply voltage (Vcc) and for disabling the switching cycles of said switching transistor in case of an over-voltage condition, and a holding circuit comprising a second capacitor being coupled via a third rectifying element to said auxiliary winding and via a resistor to said clamping circuit and to said charge capacitor, said second capacitor providing a holding current for said clamping circuit in case of said over-voltage condition.
Container sleeving method for arranging at least one sleeve around at least one container, the method comprising: - supplying a container (105;182,183,511,201); - arranging a sleeve (510,200;211,212) of heat shrinkable foil around the container by releasing the sleeve from a mandrel unit (506; 101) by ejecting the sleeve towards the container, the ejected sleeve moving upwardly in substantially the opposite direction of the gravitational force to a position around the container, characterized in that the ejecting causes the sleeve to travel unsupportedly from a position at a mandrel of the mandrel unit to a position wherein the sleeve is arranged around the container. - supplying a container (105;182,183,511,201); - arranging a sleeve (510,200;211,212) of heat shrinkable foil around the container by releasing the sleeve from a mandrel unit (506; 101) by ejecting the sleeve towards the container, the ejected sleeve moving upwardly in substantially the opposite direction of the gravitational force to a position around the container, characterized in that the ejecting causes the sleeve to travel unsupportedly from a position at a mandrel of the mandrel unit to a position wherein the sleeve is arranged around the container.
A light-receiving device comprising: a photoelectric conversion layer including a Group III-V semiconductor; a plurality of first electrically-conductive type regions into which signal charges generated in the photoelectric conversion layer move, wherein each of the first electrically-conductive type regions is in contact with and stacked on one side of the photoelectric conversion layer along a thickness direction; and a plurality of second electrically-conductive type regions, each of the second electrically-conductive type regions penetrating through the photoelectric conversion layer in the thickness direction and provided between adjacent ones of the first electrically-conductive type regions, wherein each of the second electrically-conductive type regions embeds a wall-like light-blocking structure, a diffusion source film covering the wall-like light-blocking structure and a wall-like insulating film formed between the diffusion source film and the wall-like light-blocking structure, wherein the photoelectric conversion layer includes a second electrically-conductive type and each of the second electrically-conductive type regions has a higher impurity concentration than the photoelectric conversion layer. a photoelectric conversion layer including a Group III-V semiconductor; a plurality of first electrically-conductive type regions into which signal charges generated in the photoelectric conversion layer move, wherein each of the first electrically-conductive type regions is in contact with and stacked on one side of the photoelectric conversion layer along a thickness direction; and a plurality of second electrically-conductive type regions, each of the second electrically-conductive type regions penetrating through the photoelectric conversion layer in the thickness direction and provided between adjacent ones of the first electrically-conductive type regions, wherein each of the second electrically-conductive type regions embeds a wall-like light-blocking structure, a diffusion source film covering the wall-like light-blocking structure and a wall-like insulating film formed between the diffusion source film and the wall-like light-blocking structure, wherein the photoelectric conversion layer includes a second electrically-conductive type and each of the second electrically-conductive type regions has a higher impurity concentration than the photoelectric conversion layer.
A composition comprising a physiologically acceptable carrier and a compound of Formula: wherein: Y + = N +; n is 1, 2 or 3; R 1 is selected from m is 0, 1 or 2; W is CH 2 or O; R 2, R 3 are independently selected from C1-C4 alkyl, or bound together to form part of a ring system; R 4 is H, C 1 - C 4 alkyl, or is absent when the compound exists as a carboxylate ion; X - is a pharmaceutically acceptable anion; and including any acceptable salts and solvates thereof, wherein the compound is selected from the group consisting of: Cyclopropane-dimethyl-ethanolamine iodide, N-allyl-N,N-dimethylcyclopropanaminium bromide, N,N-dimethyl-N-(prop-2-yn-1-yl)cyclopropanaminium bromide, N-(2-methoxy-2-oxoethyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-(methoxycarbonyl)allyl)-N,N-dimethylcyclopropanaminium bromide, N-(3-methoxy-2,3-dioxopropyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-cyanoallyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-amino-2-oxoethyl)-N,N-dimethylcyclopropanaminium iodide, N-(6-ethoxy-6-oxohexyl)-N,N-dimethylcyclopropanaminium iodide and 4-cyclopropyl-4-(prop-2-yn-1-yl)morpholin-4-ium bromide, and including any acceptable salts and solvates thereof. wherein: Y + = N +; n is 1, 2 or 3; R 1 is selected from m is 0, 1 or 2; W is CH 2 or O; R 2, R 3 are independently selected from C1-C4 alkyl, or bound together to form part of a ring system; R 4 is H, C 1 - C 4 alkyl, or is absent when the compound exists as a carboxylate ion; X - is a pharmaceutically acceptable anion; and including any acceptable salts and solvates thereof, wherein the compound is selected from the group consisting of: Cyclopropane-dimethyl-ethanolamine iodide, N-allyl-N,N-dimethylcyclopropanaminium bromide, N,N-dimethyl-N-(prop-2-yn-1-yl)cyclopropanaminium bromide, N-(2-methoxy-2-oxoethyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-(methoxycarbonyl)allyl)-N,N-dimethylcyclopropanaminium bromide, N-(3-methoxy-2,3-dioxopropyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-cyanoallyl)-N,N-dimethylcyclopropanaminium bromide, N-(2-amino-2-oxoethyl)-N,N-dimethylcyclopropanaminium iodide, N-(6-ethoxy-6-oxohexyl)-N,N-dimethylcyclopropanaminium iodide and 4-cyclopropyl-4-(prop-2-yn-1-yl)morpholin-4-ium bromide, and including any acceptable salts and solvates thereof.
A method for inverse tone mapping of an image in a decoder, comprising for each block of each color channel of the image the steps of: determining a scaling factor for a current block by adding a predicted scaling factor for the current block to a difference between the scaling factor of the current block and the predicted scaling factor of the current block, wherein the predicted scaling factor of the current block corresponds to the scaling factor of an adjacent block, determining an offset value for the current block by adding a predicted offset for the current block to a difference between the offset value of the current block and the predicted offset value of the current block, wherein the predicted offset value of the current block corresponds to the predicted offset value of the adjacent block; and applying the scaling factor and the offset value to pixel intensity values of the current block by multiplying the pixel intensity values of the current block by the scaling factor and adding the offset value to produce a mapped block in which a bit-depth of the mapped block is greater than the bit-depth of the current block. determining a scaling factor for a current block by adding a predicted scaling factor for the current block to a difference between the scaling factor of the current block and the predicted scaling factor of the current block, wherein the predicted scaling factor of the current block corresponds to the scaling factor of an adjacent block, determining an offset value for the current block by adding a predicted offset for the current block to a difference between the offset value of the current block and the predicted offset value of the current block, wherein the predicted offset value of the current block corresponds to the predicted offset value of the adjacent block; and applying the scaling factor and the offset value to pixel intensity values of the current block by multiplying the pixel intensity values of the current block by the scaling factor and adding the offset value to produce a mapped block in which a bit-depth of the mapped block is greater than the bit-depth of the current block.
A method for producing a sulfide-based solid electrolyte containing an alkali metal element, a sulfur element, a phosphorus element and a halogen element, the method comprising: causing a reaction of an alkali metal sulfide and a substance represented by the formula and a phosphorus sulfide in a solvent: X 2 wherein, X each represents a halogen element, and the solvent is a hydrocarbon solvent or a carbon atom-containing solvent. X each represents a halogen element, and the solvent is a hydrocarbon solvent or a carbon atom-containing solvent.
Multi-layered component, having a main body with a multiplicity of ceramic layers and internal electrodes (4, 5) and having exactly two external electrodes (6, 7) for making contact with the internal electrodes (4, 5), wherein the external electrodes (6, 7) differ in their dimensions in order to indicate their polarity, characterized in that the external electrodes (6, 7), apart from optionally present rounded corners, each have a uniform height (h) in the direction of the stacking direction of the layers and each have a uniform width (b 1, b 2) in a direction perpendicular thereto, wherein the width (b 1) of the first external electrode is greater than the width (b 2) of the second external electrode. having a main body with a multiplicity of ceramic layers and internal electrodes (4, 5) and having exactly two external electrodes (6, 7) for making contact with the internal electrodes (4, 5), wherein the external electrodes (6, 7) differ in their dimensions in order to indicate their polarity, characterized in that the external electrodes (6, 7), apart from optionally present rounded corners, each have a uniform height (h) in the direction of the stacking direction of the layers and each have a uniform width (b 1, b 2) in a direction perpendicular thereto, wherein the width (b 1) of the first external electrode is greater than the width (b 2) of the second external electrode.
A penetrating device having a linear drive for a tubular penetrating tool provided with a nozzle head for dispensing a fire-extinguishing medium from a fire-extinguishing supply device, which penetrating tool is disposed at a protruding end of a tubular and continuous piston rod of the penetrating device, characterized in that the penetrating tool, in particular the nozzle head, is provided with at least one receptacle which is recessed to a surface and in which a communication and/or detection means is disposed, which communication and/or detection means is connected in communication to a control and/or monitoring device.
Fuel injection system for an internal combustion engine, comprising at least one fuel injection nozzle, which is at least partially inserted, via a cylindrical sheath body, into a bore of a cylinder head and supplies, via a nozzle tip, fuel to a combustion chamber between the cylinder head and a reciprocating piston, the fuel injection nozzle being held in position on a housing portion of the internal combustion engine by means of a holding device and e.g. a fixing screw, which holding device clamps a first end portion of the fuel injection nozzle against a bore stop inside the bore in the cylinder head, the holding device having a fixing bushing outside the bore, on which bushing the sheath body is axially and radially fixed by means of a radial insertion element, characterized in that, viewed in the axial direction (A-A) of the sheath body of the fuel injection nozzle, a spring system acts between a first radial stop of the fuel injection nozzle and a second radial stop of the fixing bushing, which spring system is designed to move the fixing bushing against a locking member system of the insertion element by means of a third radial stop, which locking member system is supported on a fourth radial stop attached to the sheath body.
A tool for cold rolling sheet material having a base gauge G, the tool being cylindrical having an axial dimension extending along an axis of rotation and a circumferential surface having a circumferential dimension extending orthogonally to the axial dimension, the tool having rows (R12, R13) of teeth (30, 130, 230, 330, 430, 630) extending from the circumferential surface, each tooth having a rounded sheet engaging surface, each tooth (30, 130, 230, 330, 430, 630) characterized by: a radius r 1 extending along a first direction, a second radius r 2 extending along the axial dimension, a fourth radius r4 extending along the circumferential dimension; a third radius r 3 extending in a direction orthogonal to said first direction, said first and third directions extending between said axial and circumferential dimensions; both the first radius, and the third radius r 3 being equal to a radius of curvature R at and adjacent the peak (11, 31a, 41a, 61a) of each tooth, and the pitch between adjacent teeth in a row being between 2.5R and 3.9R a radius r 1 extending along a first direction, a second radius r 2 extending along the axial dimension, a fourth radius r4 extending along the circumferential dimension; a third radius r 3 extending in a direction orthogonal to said first direction, said first and third directions extending between said axial and circumferential dimensions; both the first radius, and the third radius r 3 being equal to a radius of curvature R at and adjacent the peak (11, 31a, 41a, 61a) of each tooth, and the pitch between adjacent teeth in a row being between 2.5R and 3.9R
A method of wireless communications performed by a base station, BS, comprising: assigning, from a first codebook of N short code sequences of length K, a subset of the short code sequences to a number of user equipments, UEs, wherein the number is at least two and at most N, such that a different short code sequence is assigned to each of the number of UEs; receiving a signal including uplink data or control signals from two or more of the UEs, wherein: a first uplink data or control signal is sent by a first UE of the number of UEs using a first subsequence of the short code sequence assigned to the first UE, and a second uplink data or control signal, different from the first uplink data or control signal, is sent by a second UE of the number of UEs using a second subsequence of the short code sequence assigned to the second UE or using the short code sequence assigned to the second UE; and decoding each uplink data or control signal in the signal based on the assigned subset of the short code sequences and subsequences of the short code sequences in the assigned subset of the short code sequences. assigning, from a first codebook of N short code sequences of length K, a subset of the short code sequences to a number of user equipments, UEs, wherein the number is at least two and at most N, such that a different short code sequence is assigned to each of the number of UEs; receiving a signal including uplink data or control signals from two or more of the UEs, wherein: a first uplink data or control signal is sent by a first UE of the number of UEs using a first subsequence of the short code sequence assigned to the first UE, and a second uplink data or control signal, different from the first uplink data or control signal, is sent by a second UE of the number of UEs using a second subsequence of the short code sequence assigned to the second UE or using the short code sequence assigned to the second UE; and a first uplink data or control signal is sent by a first UE of the number of UEs using a first subsequence of the short code sequence assigned to the first UE, and a second uplink data or control signal, different from the first uplink data or control signal, is sent by a second UE of the number of UEs using a second subsequence of the short code sequence assigned to the second UE or using the short code sequence assigned to the second UE; and decoding each uplink data or control signal in the signal based on the assigned subset of the short code sequences and subsequences of the short code sequences in the assigned subset of the short code sequences.
A method for wireless communication performed by a user equipment, UE, comprising: detecting, by the UE, at least one parameter associated with a non-serving base station, BS, operating in a same spectrum as a serving BS, wherein the serving and non-serving BS operate in different networks and wherein detecting the at least one parameter comprises: detecting a deployment associated with the non-serving BS, wherein the deployment comprises one of incumbent licenses, Priority Access licensees, PALs, and General Authorized Access, GAA deployment; and reporting, by the UE, to the serving BS, an indication of the at least one parameter, wherein the at least one parameter comprises the deployment associated with the non-serving BS. detecting, by the UE, at least one parameter associated with a non-serving base station, BS, operating in a same spectrum as a serving BS, wherein the serving and non-serving BS operate in different networks and wherein detecting the at least one parameter comprises: detecting a deployment associated with the non-serving BS, detecting a deployment associated with the non-serving BS, wherein the deployment comprises one of incumbent licenses, Priority Access licensees, PALs, and General Authorized Access, GAA deployment; and reporting, by the UE, to the serving BS, an indication of the at least one parameter, wherein the at least one parameter comprises the deployment associated with the non-serving BS.