mhurhangee/ep-ind-claims huggingface dataset:
Use of a surface-reacted calcium carbonate in a cosmetic and/or skin care composition as an agent for modifying the biomechanical properties of the skin, wherein the surface-reacted calcium carbonate has a volume median particle size d 50 from 0.1 to 90 μm, and wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donors treatment and/or is supplied from an external source, wherein the modification of the biomechanical properties of the skin refers to an increased skin firmness. wherein the surface-reacted calcium carbonate has a volume median particle size d 50 from 0.1 to 90 μm, and wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donors treatment and/or is supplied from an external source, wherein the modification of the biomechanical properties of the skin refers to an increased skin firmness.
A method of scheduling instructions within a parallel processing unit comprising: decoding, in an instruction decoder, an instruction in a scheduled task in an active state wherein each instruction has an associated swap flag to control whether the scheduled task is de-activated or not; checking, by an instruction controller, if the swap flag is set in the decoded instruction; and in response to determining that the swap flag in the decoded instruction is set, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state. decoding, in an instruction decoder, an instruction in a scheduled task in an active state wherein each instruction has an associated swap flag to control whether the scheduled task is de-activated or not; checking, by an instruction controller, if the swap flag is set in the decoded instruction; and in response to determining that the swap flag in the decoded instruction is set, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state.
Toy vehicle comprising a tilt bearing assembly for presetting tilting positions of a tiltable support component of the toy vehicle, - comprising a tilting bearing for presetting a horizontally extending tilting articulation axis about which the support component can be tilted relative to a holding component of the toy vehicle, - comprising a tilt locking device for locking the support component in one of several selectable tilting positions relative to the holding component, comprising a tilt locking body and a tilt counter-locking body, - wherein the tilt locking body is displaceable between -- a release position in which the tilt locking body is released from the tilt counter-locking body for tilting displacement of the support component relative to the holding component about the tilting articulation axis, and -- a locking position in which the tilt locking body is locked with the tilt counter-locking body to fix the selected tilting position, - characterized in that the tilt locking body is biased into the locking position and is designed as an actuatable tilting lever and is itself designed to be tiltable about a lever axis. - comprising a tilting bearing for presetting a horizontally extending tilting articulation axis about which the support component can be tilted relative to a holding component of the toy vehicle, - comprising a tilt locking device for locking the support component in one of several selectable tilting positions relative to the holding component, comprising a tilt locking body and a tilt counter-locking body, - wherein the tilt locking body is displaceable between -- a release position in which the tilt locking body is released from the tilt counter-locking body for tilting displacement of the support component relative to the holding component about the tilting articulation axis, and -- a locking position in which the tilt locking body is locked with the tilt counter-locking body to fix the selected tilting position, -- a release position in which the tilt locking body is released from the tilt counter-locking body for tilting displacement of the support component relative to the holding component about the tilting articulation axis, and -- a locking position in which the tilt locking body is locked with the tilt counter-locking body to fix the selected tilting position, - characterized in that the tilt locking body is biased into the locking position and is designed as an actuatable tilting lever and is itself designed to be tiltable about a lever axis.
A measurement method, comprising: determining, by a terminal, a first beam reference signal detected by the terminal, and sending a request message to a Location Management Function, LMF, entity to request positioning assistance data from the LMF entity, wherein the request message contains first beam information of the first beam reference signal, wherein the first beam reference signal is a Downlink Reference Signal, DL-RS, used to support data communication and/or a Positioning Reference Signal, PRS, used to support positioning; wherein the first beam information comprises a part or all of: a DL-RS beam identifier, DL-RS signal strength, a PRS beam identifier; receiving, by the terminal, first positioning assistance data containing second beam information of second beam reference signals sent by the LMF entity; measuring, by the terminal, the second beam reference signals from adjacent base stations according to the first positioning assistance data; wherein the second beam reference signals each is a positioning reference signal used to support positioning; determining, by the terminal, positioning information obtained by measurements, wherein the positioning information comprises RSTD measurements obtained by the terminal measuring the second beam reference signals from the adjacent base stations according to the first positioning assistance data; and sending, by the terminal, the positioning information and the second beam information of the second beam reference signals used for measurements to the LMF entity. determining, by a terminal, a first beam reference signal detected by the terminal, and sending a request message to a Location Management Function, LMF, entity to request positioning assistance data from the LMF entity, wherein the request message contains first beam information of the first beam reference signal, wherein the first beam reference signal is a Downlink Reference Signal, DL-RS, used to support data communication and/or a Positioning Reference Signal, PRS, used to support positioning; wherein the first beam information comprises a part or all of: a DL-RS beam identifier, DL-RS signal strength, a PRS beam identifier; receiving, by the terminal, first positioning assistance data containing second beam information of second beam reference signals sent by the LMF entity; measuring, by the terminal, the second beam reference signals from adjacent base stations according to the first positioning assistance data; wherein the second beam reference signals each is a positioning reference signal used to support positioning; determining, by the terminal, positioning information obtained by measurements, wherein the positioning information comprises RSTD measurements obtained by the terminal measuring the second beam reference signals from the adjacent base stations according to the first positioning assistance data; and sending, by the terminal, the positioning information and the second beam information of the second beam reference signals used for measurements to the LMF entity.
A net-like structure having a three-dimensional random loop bonded structure constituted of a continuous linear body made of a thermoplastic elastomer having a fiber diameter of 0.1-3.0 mm and a styrene content of 10-40 mass%, the net-like structure having an apparent density of 0.005-0.30 g/cm 3 and a 40°C compression residual strain of less than or equal to 35%, wherein the thermoplastic elastomer is an alloy of a styrene-based thermoplastic elastomer and a polyolefin-based thermoplastic elastomer, wherein the resin ratio of the polyolefin-based thermoplastic elastomer is 1-30 mass%, and wherein the styrene-based thermoplastic elastomer has a styrene content of greater than or equal to 40wt%.
Process for the continuous production of nitrobenzene by a) nitration of benzene with a mixture of nitric acid and sulfuric acid under adiabatic conditions; b) separation of the process product obtained in step a) by phase separation into an aqueous phase, which contains at least sulfuric acid, nitrobenzene and benzene, and an organic phase, which contains at least nitrobenzene and benzene; c) transfer of the aqueous phase obtained in step b) into an evaporator in which the sulfuric acid is concentrated by pressure reduction, wherein a gaseous stream containing at least water, nitrobenzene and benzene is removed from the evaporator and then condensed, and wherein the resulting concentrated sulfuric acid is fed back into step a); d) separation by distillation of from 20 % by mass to 100 % by mass of the benzene contained in the organic phase obtained in step b) by evaporation of benzene using the adiabatic heat of reaction obtained in step a) in the evaporation, wherein a pre-purified nitrobenzene depleted of benzene is obtained; e) washing of the pre-purified nitrobenzene obtained in step d) and subsequent separation of water by phase separation, wherein purified nitrobenzene is obtained. a) nitration of benzene with a mixture of nitric acid and sulfuric acid under adiabatic conditions; b) separation of the process product obtained in step a) by phase separation into an aqueous phase, which contains at least sulfuric acid, nitrobenzene and benzene, and an organic phase, which contains at least nitrobenzene and benzene; c) transfer of the aqueous phase obtained in step b) into an evaporator in which the sulfuric acid is concentrated by pressure reduction, wherein a gaseous stream containing at least water, nitrobenzene and benzene is removed from the evaporator and then condensed, and wherein the resulting concentrated sulfuric acid is fed back into step a); d) separation by distillation of from 20 % by mass to 100 % by mass of the benzene contained in the organic phase obtained in step b) by evaporation of benzene using the adiabatic heat of reaction obtained in step a) in the evaporation, wherein a pre-purified nitrobenzene depleted of benzene is obtained; e) washing of the pre-purified nitrobenzene obtained in step d) and subsequent separation of water by phase separation, wherein purified nitrobenzene is obtained.
An array substrate, comprising: a base substrate; a thin-film transistor, TFT, being disposed on the base substrate and including a source electrode and an active layer; a passivation layer disposed on the TFT; a first metal layer disposed on the passivation layer; an insulating layer disposed on the first metal layer; a through hole structure running through the insulating layer, the first metal layer and the passivation layer; and a detection unit being disposed on the insulating layer and including a second metal layer, wherein the second metal layer makes direct contact with the source electrode via the through hole structure, the array substrate further comprises a recess running through the first metal layer and the passivation layer and being disposed between the through hole structure and the active layer in a direction parallel to the base substrate, in which the first metal layer is disconnected at the recess to form different parts spaced from each other. a base substrate; a thin-film transistor, TFT, being disposed on the base substrate and including a source electrode and an active layer; a passivation layer disposed on the TFT; a first metal layer disposed on the passivation layer; an insulating layer disposed on the first metal layer; a through hole structure running through the insulating layer, the first metal layer and the passivation layer; and a detection unit being disposed on the insulating layer and including a second metal layer, wherein the second metal layer makes direct contact with the source electrode via the through hole structure, the array substrate further comprises a recess running through the first metal layer and the passivation layer and being disposed between the through hole structure and the active layer in a direction parallel to the base substrate, in which the first metal layer is disconnected at the recess to form different parts spaced from each other. the second metal layer makes direct contact with the source electrode via the through hole structure, the array substrate further comprises a recess running through the first metal layer and the passivation layer and being disposed between the through hole structure and the active layer in a direction parallel to the base substrate, in which the first metal layer is disconnected at the recess to form different parts spaced from each other.
A building space divider system for providing one or more rooms (2, 3) in a building space, said building space divider system comprising floor beams, at least two framework beams (7, 7', 7", 7"'), ceiling support beams, corner beams, coupling strips and wall panels, said beams forming a room framework, wherein said framework beams (7, 7", 7"') extend in a longitudinal direction, have a cross section having a coupling end having a first width and an opposite wall panel end having a second width, said second width larger than said first width, and said framework beams (7, 7", 7"') comprising longitudinal beam coupling parts, characterized in that said at least two framework beams (7, 7', 7", 7"') are back-to-back coupled via said coupling strips that are at both opposite sides of said coupling end with said first width W1, each coupling strip comprising two strip parts (13, 14) each having a beam coupling end extending along a longitudinal side of the strip part (13, 14) for coupling to said beam coupling part of said framework beam (7, 7", 7"'), and a strip coupling end extending along an opposite longitudinal side of said strip part (13, 14) for coupling two strip parts (13, 14) together for forming said coupling strip.
A method for DNA fragment assembly, comprising, (a) providing a first DNA molecule comprises a Kozak sequence; (b) providing a second DNA molecule comprises a Kozak sequence at one end and a six frame stop sequence at the other end; (c) providing a third DNA molecule comprises a six frame stop sequence; (d) providing a fourth DNA molecule comprises a linear vector sequence; and (e) assembling product vector using DNA fragments of steps (a), (b), (c), and (d) in the presence of at least one recombinase, wherein the Kozak sequence of the first and second DNA is homologous and is selected from the group consisting of SEQ ID NOS 1-43, 64-74, and their complements, wherein the six frame stop sequence of the second and third DNA is homologous and is selected from the group consisting of SEQ ID NOS 75-80 and their complements. (a) providing a first DNA molecule comprises a Kozak sequence; (b) providing a second DNA molecule comprises a Kozak sequence at one end and a six frame stop sequence at the other end; (c) providing a third DNA molecule comprises a six frame stop sequence; (d) providing a fourth DNA molecule comprises a linear vector sequence; and (e) assembling product vector using DNA fragments of steps (a), (b), (c), and (d) in the presence of at least one recombinase,
A process for producing a silane modified vinyl ester latex adhesive composition by free radically initiated aqueous emulsion polymerization of vinyl ester monomers in the presence of at least one dispersant and at least one free radical initiator, providing a silane modified vinyl ester latex adhesive composition, comprising, based on the total amount of monomers, a. from 50 to 99% by weight of vinyl esters of C2-C12-carboxylic acids and from 0,05 to 5% of vinyl silanes capable of copolymerizing with the said vinyl esters, b. from 0,75% to 25% by weight of at least one polyvinyl alcohol with a degree of hydrolysis of between 70% and 99%, c. from 0,05% to 5% by weight of at least one crosslinking agent, d. from 1% to 20% by weight, of at least one Lewis acid metal salt, wherein the vinyl silane monomer is added into the reaction medium after at least 50% by weight of the total amount of vinyl esters of C2-C12-carboxylic acids has been fed into the reaction medium and before the monomer reduction stage is reached. a. from 50 to 99% by weight of vinyl esters of C2-C12-carboxylic acids and from 0,05 to 5% of vinyl silanes capable of copolymerizing with the said vinyl esters, b. from 0,75% to 25% by weight of at least one polyvinyl alcohol with a degree of hydrolysis of between 70% and 99%, c. from 0,05% to 5% by weight of at least one crosslinking agent, d. from 1% to 20% by weight, of at least one Lewis acid metal salt,
A cordless, hand held and electrically powered welding apparatus (12, 14), comprising: a welding unit; a power unit for powering the welding unit; wherein the power unit is connectable directly to and disconnectable from the welding unit via an interface; the welding unit and the power unit each comprise circuitry (17a, 17b) that are configured to exchange information when mounted together via the interface, the information being used for a determination whether the power unit is a correct one or not, wherein the determination is performed by the circuitry of the welding unit in a verification step by receiving the information from the circuitry of the power unit, wherein the circuitry is configured to perform the verification step by checking at least one feature of the power unit for correctness and to block activation of the welding unit if the at least one feature is incorrect, characterized in that the at least one feature comprises charge status of the power unit, the information being indicative of the actual charging state of the power unit, wherein the power unit is determined to be a correct one if the actual charging state of the power unit indicates that the amount of stored energy is appropriate for a welding operation that is to be performed, the power unit is provided with a push button that is configured to energize the welding unit when pressed down only if a determination that the power unit is a correct one has been registered by the circuitry. a welding unit; a power unit for powering the welding unit; wherein the power unit is connectable directly to and disconnectable from the welding unit via an interface; the welding unit and the power unit each comprise circuitry (17a, 17b) that are configured to exchange information when mounted together via the interface, the information being used for a determination whether the power unit is a correct one or not, wherein the determination is performed by the circuitry of the welding unit in a verification step by receiving the information from the circuitry of the power unit, wherein the circuitry is configured to perform the verification step by checking at least one feature of the power unit for correctness and to block activation of the welding unit if the at least one feature is incorrect, the at least one feature comprises charge status of the power unit, the information being indicative of the actual charging state of the power unit, wherein the power unit is determined to be a correct one if the actual charging state of the power unit indicates that the amount of stored energy is appropriate for a welding operation that is to be performed, the power unit is provided with a push button that is configured to energize the welding unit when pressed down only if a determination that the power unit is a correct one has been registered by the circuitry.
A method, comprising: in response to a cache miss for a first request for a first data at a cache, assigning a cache entry of the cache to store the data; while the data is being retrieved from a different level of memory to the cache, storing an indicator at the cache entry that the first request is pending at the cache, the indicator comprising a main memory address of the first data and a status bit indicating that the first data is a subject of a pending cache miss; and storing an identifier including a data index and cache entry location information of the cache entry at a buffer; in response to receiving at the cache a second request for the data while the data is being retrieved to the cache, reading the indicator at the cache entry; and in response to identifying based on the indicator that the first request is pending at the cache, placing the second request for the first data in a pending state until the data has been retrieved to the cache and treating the second request as a cache hit that has already been copied to a processor. in response to a cache miss for a first request for a first data at a cache, assigning a cache entry of the cache to store the data; while the data is being retrieved from a different level of memory to the cache, storing an indicator at the cache entry that the first request is pending at the cache, the indicator comprising a main memory address of the first data and a status bit indicating that the first data is a subject of a pending cache miss; and storing an identifier including a data index and cache entry location information of the cache entry at a buffer; storing an indicator at the cache entry that the first request is pending at the cache, the indicator comprising a main memory address of the first data and a status bit indicating that the first data is a subject of a pending cache miss; and storing an identifier including a data index and cache entry location information of the cache entry at a buffer; in response to receiving at the cache a second request for the data while the data is being retrieved to the cache, reading the indicator at the cache entry; and in response to identifying based on the indicator that the first request is pending at the cache, placing the second request for the first data in a pending state until the data has been retrieved to the cache and treating the second request as a cache hit that has already been copied to a processor.