mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, comprising: a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory , when executed, cause the UE to: determine a physical uplink control channel, PUCCH, resource and a PUCCH format; and transmit uplink control information, UCI, on the PUCCH resource using the PUCCH format, wherein in response to determining the PUCCH format and when the PUCCH format is a 2-symbol PUCCH: (i) when the UCI is up to 2 bits, a 1-symbol PUCCH structure is used in each symbol and the UCI is repeated in two symbols using repetition of a 1-symbol PUCCH, and (ii) when the UCI is more than 2 bits, the UCI is jointly encoded, the encoded UCI bits are distributed across two symbols, and if the UCI includes HARQ-ACK and scheduling request, SR, SR bits are appended to HARQ-ACK bits and the HARQ-ACK bits and the SR bits are jointly encoded. a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory , when executed, cause the UE to: determine a physical uplink control channel, PUCCH, resource and a PUCCH format; and transmit uplink control information, UCI, on the PUCCH resource using the PUCCH format, wherein determine a physical uplink control channel, PUCCH, resource and a PUCCH format; and transmit uplink control information, UCI, on the PUCCH resource using the PUCCH format, wherein in response to determining the PUCCH format and when the PUCCH format is a 2-symbol PUCCH: (i) when the UCI is up to 2 bits, a 1-symbol PUCCH structure is used in each symbol and the UCI is repeated in two symbols using repetition of a 1-symbol PUCCH, and (ii) when the UCI is more than 2 bits, the UCI is jointly encoded, the encoded UCI bits are distributed across two symbols, and if the UCI includes HARQ-ACK and scheduling request, SR, SR bits are appended to HARQ-ACK bits and the HARQ-ACK bits and the SR bits are jointly encoded. (i) when the UCI is up to 2 bits, a 1-symbol PUCCH structure is used in each symbol and the UCI is repeated in two symbols using repetition of a 1-symbol PUCCH, and (ii) when the UCI is more than 2 bits, the UCI is jointly encoded, the encoded UCI bits are distributed across two symbols, and if the UCI includes HARQ-ACK and scheduling request, SR, SR bits are appended to HARQ-ACK bits and the HARQ-ACK bits and the SR bits are jointly encoded.
Hammering device functioning with pressure fluid of a hydraulic arrangement, which hammering device comprises a body , which can be attached to a working machine, on which body a hammering mass of the hammering device is adjusted to be resting and to be moving, which hammering mass is moved into a hammering position with the help of hydraulic pressure by directing the pressurized fluid into a ring-shaped, first chamber space of the hammering device, in which case the hammering mass when it is moving into the hammering position compresses gas in a chamber space (K1) located at the first side of the hammering mass and in order to perform the hammering movement with the hammering mass to a hammering element of the hammering device the flow of hydraulic pressure is blocked to the first chamber space and the access for pressure fluid is allowed away from the first chamber space with the help of a valve of the hammering device, characterized in that the valve is a ring-shaped valve and in order to remove the pressure fluid fast from the first chamber space a ring-shaped, second chamber space of the hammering device is adjusted to be an extension of the first chamber space and the ring-shaped valve , which comprises a closing ring, is adjusted between the mentioned first and second chamber spaces , a port of the valve is formed of a group of holes, which holes are located in the mentioned closing ring, in which case during the impact the pressure fluid is adjusted to move fast from the first chamber space to the second chamber space through the mentioned ring-shaped valve when the volumes of the mentioned chamber spaces are changing due to the movement of the hammering mass in form of a piston .
A minimally invasive method for diagnosing atopic dermatitis comprising steps of: applying, to a skin of a subject, a microneedle patch comprising a plurality of microneedles, which are formed of biodegradable polymer hyaluronic acid and have a solid structure, and a bottom layer on which the plurality of microneedles are formed; maintaining the microneedle patch for a predetermined time in a state in which the microneedle patch is attached to the skin of the subject; separating the microneedle patch from the skin of the subject after the predetermined time and putting the proteins from the subject, adsorbed onto surfaces of the microneedles of the microneedle patch, into quantitative testing; reading amounts of interleukin-4 and interleukin-13, adsorbed onto surfaces of the microneedles of the microneedle patch, in the quantitative testing; and evaluating an activity of atopic dermatitis based on the read amounts of interleukin-4 and interleukin-13. applying, to a skin of a subject, a microneedle patch comprising a plurality of microneedles, which are formed of biodegradable polymer hyaluronic acid and have a solid structure, and a bottom layer on which the plurality of microneedles are formed; maintaining the microneedle patch for a predetermined time in a state in which the microneedle patch is attached to the skin of the subject; separating the microneedle patch from the skin of the subject after the predetermined time and putting the proteins from the subject, adsorbed onto surfaces of the microneedles of the microneedle patch, into quantitative testing; reading amounts of interleukin-4 and interleukin-13, adsorbed onto surfaces of the microneedles of the microneedle patch, in the quantitative testing; and evaluating an activity of atopic dermatitis based on the read amounts of interleukin-4 and interleukin-13.
A method for preparing a thermochromic water-based gel ink composition comprising the steps of: (i) preparing a thermochromic pigment composition by mixing: (A) at least one electron-donating color-developing organic compound, (B) at least one electron-accepting compound, and (C) at least one color change temperature regulator, (ii) encapsulating the thermochromic pigment composition prepared in step (i) in presence of a copolymer surfactant comprising at least one monomer of maleic anhydride, to generate an aqueous suspension of thermochromic pigment microcapsules, (iii) acidifying the aqueous suspension of thermochromic pigment microcapsules obtained in step (ii) at a pH lower than or equal to 4.6, preferably a pH lower than or equal to 4.5, and more preferably a pH lower than or equal to 4, by adding a monocarboxylic or polycarboxylic acid, the amount of monocarboxylic or polycarboxylic acid preferably ranging from 0.5 to 5% by weight, relative to the total weight of the aqueous suspension of thermochromic pigment microcapsules, (iv) preparing a thermochromic water-based gel ink composition comprising the aqueous suspension of thermochromic pigment microcapsules obtained in step (iii) and at least a gelling agent. (i) preparing a thermochromic pigment composition by mixing: (A) at least one electron-donating color-developing organic compound, (B) at least one electron-accepting compound, and (C) at least one color change temperature regulator, (A) at least one electron-donating color-developing organic compound, (B) at least one electron-accepting compound, and (C) at least one color change temperature regulator, (ii) encapsulating the thermochromic pigment composition prepared in step (i) in presence of a copolymer surfactant comprising at least one monomer of maleic anhydride, to generate an aqueous suspension of thermochromic pigment microcapsules, (iii) acidifying the aqueous suspension of thermochromic pigment microcapsules obtained in step (ii) at a pH lower than or equal to 4.6, preferably a pH lower than or equal to 4.5, and more preferably a pH lower than or equal to 4, by adding a monocarboxylic or polycarboxylic acid, the amount of monocarboxylic or polycarboxylic acid preferably ranging from 0.5 to 5% by weight, relative to the total weight of the aqueous suspension of thermochromic pigment microcapsules, (iv) preparing a thermochromic water-based gel ink composition comprising the aqueous suspension of thermochromic pigment microcapsules obtained in step (iii) and at least a gelling agent.
A floor treatment machine comprising a base portion provided with two or more rotatable generally disc-shaped floor-facing work heads which are arranged side by side and define therebetween a sagittal plane which is vertical with respect to the floor, wherein each work head has a generally vertical axis of rotation, the machine being provided with drive means for rotating the work heads about the generally vertical axis of rotation, wherein in the drive means is/are arranged to rotate both work heads in the same rotational direction around each generally vertical axis of rotation, and wherein a corrective measure is applied to at least one of the work heads, which measure acts to neutralize any net force generated by the co-rotation of the work heads so as to prevent drift of the machine, or which measure acts to modify a net force created by the co-rotation so as to provide a net propulsive force in a direction of use.
An arrangement for contactless energy transmission by means of induction, comprising: a plurality of at least four coils , wherein the coils comprise at least one conductor that surrounds a central axis of the respective coil at least once in one turn, wherein the coils are arranged adjacent to one another and in a regular manner in a planar unit that extends in a first dimension, in a second dimension, and in a third dimension, and the planar unit has an extension in the first dimension and in the second dimension that are significantly greater than in the third dimension, and the coils are arranged in a regular manner within the planar unit in rows and columns such that each coil has at least three immediately adjacent coils, and wherein, in a top view along the central axis of the coils, the coils are arranged in a regular matrix-like manner in rows and columns in a checkerboard-type pattern, characterized in that surfaces spanned by the at least one turn of each coil overlap in segments for each immediately adjacent pair of coils, wherein immediately adjacent coils comprise diagonally adjacent coils. a plurality of at least four coils , wherein the coils comprise at least one conductor that surrounds a central axis of the respective coil at least once in one turn, wherein the coils are arranged adjacent to one another and in a regular manner in a planar unit that extends in a first dimension, in a second dimension, and in a third dimension, and the planar unit has an extension in the first dimension and in the second dimension that are significantly greater than in the third dimension, and the coils are arranged in a regular manner within the planar unit in rows and columns such that each coil has at least three immediately adjacent coils, and wherein, in a top view along the central axis of the coils, the coils are arranged in a regular matrix-like manner in rows and columns in a checkerboard-type pattern, characterized in that surfaces spanned by the at least one turn of each coil overlap in segments for each immediately adjacent pair of coils, wherein immediately adjacent coils comprise diagonally adjacent coils.
A method of purifying a 5-nitrotetrazolate solution comprising the step of: treating a sodium 5-nitrotetrazolate solution with a copper(II) modified cation exchange resin.
A photoactivatable drug for use in treating a subject with a disorder, said use comprising: providing within the subject at least one photoactivatable drug for treatment of the subject; applying initiation energy from at least one source to generate inside the subject a preferential x-ray flux for generation of Cherenkov radiation (CR) light capable of activating the at least one photoactivatable drug; and from said CR light, activating inside the subject the at least one photoactivatable drug to thereby treat the disorder, wherein applying initiation energy comprises applying a filtered set of x-rays to the subject having an energy of at least 0.5 MeV and less than 10 MeV. providing within the subject at least one photoactivatable drug for treatment of the subject; applying initiation energy from at least one source to generate inside the subject a preferential x-ray flux for generation of Cherenkov radiation (CR) light capable of activating the at least one photoactivatable drug; and from said CR light, activating inside the subject the at least one photoactivatable drug to thereby treat the disorder, wherein applying initiation energy comprises applying a filtered set of x-rays to the subject having an energy of at least 0.5 MeV and less than 10 MeV.
A method for treating a lithium ion battery waste, the method comprising: an alloy production step of introducing the lithium ion battery waste into a furnace and then melting the lithium ion battery waste by heating, thereby producing an alloy containing copper, nickel and cobalt; and an electrolytic purification step of subjecting the alloy to such an electrolytic treatment that the alloy is charged as an anode into a sulfuric acid solution and then electricity is conducted between the anode and a cathode to electrodeposit copper contained in the alloy onto the cathode, thereby separating copper from nickel and cobalt, wherein in the electrolytic purification step, the electrolytic treatment is performed while a pH of an electrolyte solution is controlled to 0 or more and 1.2 or less and a current density (Dk) of the cathode is controlled to be less than or equal to the current density calculated by the following Equation I: Dk A / m 2 = − 2062 × pH + 3002 an alloy production step of introducing the lithium ion battery waste into a furnace and then melting the lithium ion battery waste by heating, thereby producing an alloy containing copper, nickel and cobalt; and an electrolytic purification step of subjecting the alloy to such an electrolytic treatment that the alloy is charged as an anode into a sulfuric acid solution and then electricity is conducted between the anode and a cathode to electrodeposit copper contained in the alloy onto the cathode, thereby separating copper from nickel and cobalt, wherein in the electrolytic purification step, the electrolytic treatment is performed while a pH of an electrolyte solution is controlled to 0 or more and 1.2 or less and a current density (Dk) of the cathode is controlled to be less than or equal to the current density calculated by the following Equation I: Dk A / m 2 = − 2062 × pH + 3002
Plug-in connector part for electrical connection to a mating plug-in connector part , comprising - a housing , - at least two load contacts , - an electrically insulating contact carrier by which the load contacts are held on the housing , - a protective conductor contact and - an earthing element which is arranged in the housing and is electrically connected to the protective conductor contact , wherein the earthing element extends in an electrically contactable manner on a creep path (K) between the two load contacts , characterized in that the earthing element comprises a blade which passes through an opening in the contact carrier . - a housing , - at least two load contacts , - an electrically insulating contact carrier by which the load contacts are held on the housing , - a protective conductor contact and - an earthing element which is arranged in the housing and is electrically connected to the protective conductor contact , wherein the earthing element extends in an electrically contactable manner on a creep path (K) between the two load contacts , characterized in that the earthing element comprises a blade which passes through an opening in the contact carrier .
A video decoding method performed in a decoding apparatus (200; 1800), the method comprising: parsing first information indicating whether residual signal is present in a current block (S 1100); when the first information indicates that the residual signal is present in the current block, acquiring the residual signal of the current block (S1115); obtaining second information whether a transform is performed on the residual signal of the current block (S1140); determining a transform type of the current block when the second information indicates that the transform is performed on the residual signal of the current block (S 1145); and performing the transform on the residual signal of the current block based on the determined transform type; wherein the transform type is determined to be a discrete cosine transform, DCT, or a discrete sine transform, DST, depending on a size, a component, and a prediction mode of the current block, characterized by : when the component of the current block is not a luma signal (S900) or when the component of the current block is a luma signal and the current block is intra predicted (S910) and a size of the current block is not equal to 4x4 (S920), the transform type is determined to be the DCT (S990) independently of which intra prediction mode was used to predict the current block. parsing first information indicating whether residual signal is present in a current block (S 1100); when the first information indicates that the residual signal is present in the current block, acquiring the residual signal of the current block (S1115); obtaining second information whether a transform is performed on the residual signal of the current block (S1140); determining a transform type of the current block when the second information indicates that the transform is performed on the residual signal of the current block (S 1145); and performing the transform on the residual signal of the current block based on the determined transform type; wherein the transform type is determined to be a discrete cosine transform, DCT, or a discrete sine transform, DST, depending on a size, a component, and a prediction mode of the current block, characterized by : when the component of the current block is not a luma signal (S900) or when the component of the current block is a luma signal and the current block is intra predicted (S910) and a size of the current block is not equal to 4x4 (S920), the transform type is determined to be the DCT (S990) independently of which intra prediction mode was used to predict the current block. when the component of the current block is not a luma signal (S900) or when the component of the current block is a luma signal and the current block is intra predicted (S910) and a size of the current block is not equal to 4x4 (S920), the transform type is determined to be the DCT (S990) independently of which intra prediction mode was used to predict the current block.
Method of manufacturing a pipe intended to be mounted in a fluid circuit (C) of an aircraft, the pipe comprising a tube and two connection ends , the tube being made of thermoplastic material and having a cylindrical shape, the tube defining an internal surface (SI), intended to be in contact with the fluid, and an external surface (SE) opposite the internal surface (SI), the manufacturing method, comprising: - a step of determining (E1) at least two portions to be reinforced of the tube , - a step of determining (E2) at least one portion to be bent , the portion to be bent being positioned between the two portions to be reinforced , - a step of positioning (E3) at least one reinforcement band extending longitudinally over the external surface (SE) of the two portions to be reinforced , the portion to be bent being free of the reinforcement band , then - a step of bending (E7) the portion to be bent . - a step of determining (E1) at least two portions to be reinforced of the tube , - a step of determining (E2) at least one portion to be bent , the portion to be bent being positioned between the two portions to be reinforced , - a step of positioning (E3) at least one reinforcement band extending longitudinally over the external surface (SE) of the two portions to be reinforced , the portion to be bent being free of the reinforcement band , then - a step of bending (E7) the portion to be bent .
A hot stamped film, said film having first and second surfaces separated from each other in a vertical direction, said film comprising an optical element , said optical element comprising: a plurality of Fresnel lens elements spaced in a horizontal direction with respect to each other, individual ones of said plurality of Fresnel lens elements comprising an angled facet portion and a substantially horizontal portion , said plurality of Fresnel lens elements closer in said vertical direction to said first surface than said second surface , wherein said angled facet portion has a depth that is on average less than about 5 microns, and wherein a minimum spacing of the plurality of Fresnel lens elements is greater than or equal to 4 microns, characterized in that the substantially horizontal portion is coated with reflective material . a plurality of Fresnel lens elements spaced in a horizontal direction with respect to each other, individual ones of said plurality of Fresnel lens elements comprising an angled facet portion and a substantially horizontal portion , said plurality of Fresnel lens elements closer in said vertical direction to said first surface than said second surface , wherein said angled facet portion has a depth that is on average less than about 5 microns, and wherein a minimum spacing of the plurality of Fresnel lens elements is greater than or equal to 4 microns, characterized in that the substantially horizontal portion is coated with reflective material .
A process for manufacturing a transaction , the process comprising the steps of: a. providing a metal, ceramic, or ceramic-coated body having a thickness, a front face, a back face, and a visual appearance; b. creating a pocket in the body having a periphery and extending from the back face to a location adjacent the front face; c. creating a plurality of openings extending from the front face into the pocket, the plurality of openings forming a pattern; d. positioning an insert in the pocket, the insert having a visual appearance different than the visual appearance of the body and visible through the plurality of openings; e. disposing a non-metal backing layer adjacent the back face of the body and a back face of the insert; and f. laminating the backing layer to the body and the insert. a. providing a metal, ceramic, or ceramic-coated body having a thickness, a front face, a back face, and a visual appearance; b. creating a pocket in the body having a periphery and extending from the back face to a location adjacent the front face; c. creating a plurality of openings extending from the front face into the pocket, the plurality of openings forming a pattern; d. positioning an insert in the pocket, the insert having a visual appearance different than the visual appearance of the body and visible through the plurality of openings; e. disposing a non-metal backing layer adjacent the back face of the body and a back face of the insert; and f. laminating the backing layer to the body and the insert.