mhurhangee/patent-ind-claim-en huggingface dataset:
An analysis apparatus for analyzing a measurement fluid which flows through a flow passage , said analysis apparatus comprising an optical measurement unit which has at least one optical boundary surface for a technical measurement connection of the optical measurement unit to the flow passage ; and a flushing apparatus for flushing the at least one optical boundary surface with a flushing fluid, wherein the flushing apparatus is configured to process measurement fluid and to introduce the processed measurement fluid as a flushing fluid into a flushing region adjoining the optical boundary surface , and wherein the flushing apparatus is configured to collect a part flow of the measurement fluid flowing through the flow passage , to process it and to introduce it into the flushing region by utilizing the flow energy, characterized in that the flushing apparatus has an opening which collects the part flow and which is at least substantially oriented against a main flow direction of the flow passage .
A method for detecting presence of at least one pathogen in a liquid-containing sample, the method comprising: applying a first electrical pulse between at least two electrodes in electrical communication with at least a portion of the liquid-containing sample; detecting a first initial electrical response of the at least a portion of the liquid-containing sample and the at least two electrodes due to application of the first electrical pulse, to generate at least one first initial electrical response signal that is indicative of an electrical response in a first initial time window that extends no longer than a time required to attain 95% of a steady state electrical response value after a change in state of the first electrical pulse; applying a second electrical pulse between the at least two electrodes in electrical communication with at least a portion of the liquid-containing sample; detecting a second initial electrical response of the at least a portion of the liquid-containing sample and the at least two electrodes due to application of the second electrical pulse, to generate at least one second initial electrical response signal that is indicative of an electrical response in a second initial time window that extends no longer than the time required to attain 95% of the steady state electrical response value after a change in state of the second electrical pulse; and comparing a second electrical response embodying or derived from the at least one second initial electrical response signal to a first electrical response embodying or derived from the at least one first initial electrical response signal. applying a first electrical pulse between at least two electrodes in electrical communication with at least a portion of the liquid-containing sample; detecting a first initial electrical response of the at least a portion of the liquid-containing sample and the at least two electrodes due to application of the first electrical pulse, to generate at least one first initial electrical response signal that is indicative of an electrical response in a first initial time window that extends no longer than a time required to attain 95% of a steady state electrical response value after a change in state of the first electrical pulse; applying a second electrical pulse between the at least two electrodes in electrical communication with at least a portion of the liquid-containing sample; detecting a second initial electrical response of the at least a portion of the liquid-containing sample and the at least two electrodes due to application of the second electrical pulse, to generate at least one second initial electrical response signal that is indicative of an electrical response in a second initial time window that extends no longer than the time required to attain 95% of the steady state electrical response value after a change in state of the second electrical pulse; and comparing a second electrical response embodying or derived from the at least one second initial electrical response signal to a first electrical response embodying or derived from the at least one first initial electrical response signal.
A wind turbine , comprising a container , a fluid which is arranged inside the container , and a damping body which is arranged inside the container , which is immersed in the fluid , and which is configured to move inside the container , the fluid and the damping body are configured to damp oscillations of the wind turbine , characterized in that the container and the damping body are configured such that a full rotation of the damping body inside the container is prevented.
A sealing assembly for installation sealing between upper and lower hearths of a reflow oven , characterized in that the sealing assembly comprises: a support part , the support part taking the form of a long strip; a sealing part , the sealing part being elastic, the sealing part and the support part having the same length directions, the sealing part being located at one side in the width direction of the support part and being connected to the support part ; and a mounting seat , the support part and the sealing part being removably mounted on the mounting seat ; and wherein the bottom of the sealing part and the bottom of the support part are connected, and together form a base part . a support part , the support part taking the form of a long strip; a sealing part , the sealing part being elastic, the sealing part and the support part having the same length directions, the sealing part being located at one side in the width direction of the support part and being connected to the support part ; and a mounting seat , the support part and the sealing part being removably mounted on the mounting seat ; and wherein the bottom of the sealing part and the bottom of the support part are connected, and together form a base part .
A method of analyzing a copolycarbonate, the method comprising: reacting the copolycarbonate including a first repeating unit derived from an aromatic diol compound and a second repeating unit derived from a polysiloxane-containing aromatic diol compound with methanol to decompose the copolycarbonate into the aromatic diol compound and the polysiloxane-containing aromatic diol compound; and performing gel permeation chromatography of the decomposed polysiloxane-containing aromatic diol compound, wherein the step of reacting the copolycarbonate with methanol includes the steps of dissolving an alkali in methanol to prepare an alkali hydroxide solution; and reacting the prepared alkali hydroxide solution with the copolycarbonate to perform an alkali-catalyzed alcoholysis reaction, wherein the alkali-catalyzed alcoholysis reaction is performed at 40°C to 80°C. reacting the copolycarbonate including a first repeating unit derived from an aromatic diol compound and a second repeating unit derived from a polysiloxane-containing aromatic diol compound with methanol to decompose the copolycarbonate into the aromatic diol compound and the polysiloxane-containing aromatic diol compound; and performing gel permeation chromatography of the decomposed polysiloxane-containing aromatic diol compound, wherein the step of reacting the copolycarbonate with methanol includes the steps of dissolving an alkali in methanol to prepare an alkali hydroxide solution; and reacting the prepared alkali hydroxide solution with the copolycarbonate to perform an alkali-catalyzed alcoholysis reaction, wherein the alkali-catalyzed alcoholysis reaction is performed at 40°C to 80°C.
An electronic device comprising: a housing ; a window arranged in at least a part of the housing; a display module arranged in a rear surface of the window; a heat radiating member arranged in a rear surface of the display module; a polymer member arranged between a first surface of the heat radiating member and the rear surface of the display module; and a conductive member arranged in a second surface of the heat radiating member opposite to the first surface of the heat radiating member, wherein a waterproof structure for the heat radiating member is implemented by means of junctions regions (W1, W2) that are formed along an edge of the polymer member and the conductive member and wherein the polymer member and the conductive member are mutually adhered in the junction regions. a housing ; a window arranged in at least a part of the housing; a display module arranged in a rear surface of the window; a heat radiating member arranged in a rear surface of the display module; a polymer member arranged between a first surface of the heat radiating member and the rear surface of the display module; and a conductive member arranged in a second surface of the heat radiating member opposite to the first surface of the heat radiating member, wherein a waterproof structure for the heat radiating member is implemented by means of junctions regions (W1, W2) that are formed along an edge of the polymer member and the conductive member and wherein the polymer member and the conductive member are mutually adhered in the junction regions.
An antibacterial composition comprising as active agents 1) a composition A comprising polymyxin B and trimethoprim; and 2) one antibiotic agent that is a) rifamycin, or a rifamycin derivative selected from the group consisting of rifampicin (or rifampin), rifabutin, rifapentine, rifalazil and rifaximin or b) tobramycin, and one or more pharmaceutically acceptable carriers or excipients.
A composition comprising a therapeutically effective amount of a compound, neutralizing peptide, or neutralizing antibody that inactivates or blocks 15-hydroxyprostaglandin dehydrogenase (15-PGDH) for use in regenerating a population of muscle cells and treating muscle damage, muscle injury, or muscle atrophy in a subject in need thereof.
A communication method , comprising: receiving information over a communication medium in accordance with a Time Division Duplexing, TDD, frame structure defining a series of frames and subframes, wherein the communication medium corresponds to at least a portion of a shared unlicensed frequency band that requires contention-based access; determining a set of subframe resources for carrying an acknowledgment channel over the communication medium, wherein the determined set of subframe resources occupies no more than a threshold fraction of a subframe and is spread in frequency over a plurality of interleaved blocks of Orthogonal Frequency Division Multiplexed, OFDM, tones, wherein the threshold fraction of the subframe comprises a maximum of two OFDM symbol periods, and wherein the threshold fraction of the subframe meets a threshold transmission duration defining a contention-free period of time associated with a fraction of transmissions allowed to proceed in the shared unlicensed frequency band as contention-free transmissions without contention-based access; and transmitting one or more acknowledgment messages associated with the received information over the acknowledgment channel via the determined set of subframe resources without contending for access. receiving information over a communication medium in accordance with a Time Division Duplexing, TDD, frame structure defining a series of frames and subframes, wherein the communication medium corresponds to at least a portion of a shared unlicensed frequency band that requires contention-based access; determining a set of subframe resources for carrying an acknowledgment channel over the communication medium, wherein the determined set of subframe resources occupies no more than a threshold fraction of a subframe and is spread in frequency over a plurality of interleaved blocks of Orthogonal Frequency Division Multiplexed, OFDM, tones, wherein the threshold fraction of the subframe comprises a maximum of two OFDM symbol periods, and wherein the threshold fraction of the subframe meets a threshold transmission duration defining a contention-free period of time associated with a fraction of transmissions allowed to proceed in the shared unlicensed frequency band as contention-free transmissions without contention-based access; and transmitting one or more acknowledgment messages associated with the received information over the acknowledgment channel via the determined set of subframe resources without contending for access.
A barrier laminate comprising: a substrate; an adhesive layer; an evaporated film; an intermediate layer; and a sealant layer, the intermediate layer includes a surface coating layer and a polypropylene resin layer, the evaporated film is provided on the surface coating layer of the intermediate layer, the barrier laminate further includes a barrier coating layer between the adhesive layer and the evaporated film, the polypropylene resin layer is subjected to a stretching process, the surface coating layer contains a resin material with a polar group, and the evaporated film comprises an inorganic oxide. a substrate; an adhesive layer; an evaporated film; an intermediate layer; and a sealant layer, the intermediate layer includes a surface coating layer and a polypropylene resin layer, the evaporated film is provided on the surface coating layer of the intermediate layer, the barrier laminate further includes a barrier coating layer between the adhesive layer and the evaporated film, the polypropylene resin layer is subjected to a stretching process, the surface coating layer contains a resin material with a polar group, and the evaporated film comprises an inorganic oxide.
Process for producing three-dimensional objects from a powder bed by means of a binder jetting process by multiple repetition of the process steps a) selective application of a binder and subsequent or simultaneous hardening of this binder in the powder bed and b) application of a new powder layer on the surface, wherein the powder bed comprises at least one type of porous polymer particles, characterized in that these porous particles have a diameter between 10 and 500 μm and in that these porous particles comprise between 5 and 20 vol% of pores determined as specified in the description.
Air-conditioned seat comprising at least one fluid distribution system for venting a sitting component and/or a backrest component , wherein the fluid distribution system comprises at least one exposed region, a fluid distribution duct which in an unloaded state (II) has a variable cross section in comparison with an unloaded state (I) of the fluid distribution system and has at least one venting opening in a sitting face of the sitting component and/or a leaning face of the backrest component , wherein at least one element which maintains the cross section of the fluid distribution duct which is in the loaded state (II) is arranged in the at least one fluid distribution duct , characterized in that the at least one supporting/reinforcement element which maintains the cross section of the at least one fluid distribution duct is a fitting with a body whose geometry does not change in the case of loading, wherein the fitting comprises, in addition to the function which maintains the cross section of the at least one fluid distribution duct , an open-loop or closed-loop control function of a volume flow of a fluid which flows through the at least one fluid distribution duct .
A user device, UE, for a wireless communication system , the wireless communication system including a plurality of user devices, UEs, wherein the UE (UE-A) is to communicate with one or more further UEs (UE-B) using a sidelink, SL, interface , like a PC5 interface, wherein the UE (UE-A) is to send to the further UE (UE-B) one or more reports or assistance information messages, AIMs, to provide the further UE (UE-B) with one or more of the following: • resource allocation related assistance information, • link related assistance information, • distance related assistance information, • geographical area related assistance information, • group related assistance information, • relay related assistance information, characterized in that the UE (UE-A) is to send or transmit the one or more AlMs as a part of a data transmission, which is indicated by parameters in the accompanying control message, like a SCI, and the indication in the control message comprises one of the following: • a beta_offset_indicator in a first stage SCI, • a parameter to be set by the UE (UE-A) in a first stage SCI or second stage SCI for indicating the presence of the AIM in the PSSCH. wherein the UE (UE-A) is to communicate with one or more further UEs (UE-B) using a sidelink, SL, interface , like a PC5 interface, wherein the UE (UE-A) is to send to the further UE (UE-B) one or more reports or assistance information messages, AIMs, to provide the further UE (UE-B) with one or more of the following: • resource allocation related assistance information, • link related assistance information, • distance related assistance information, • geographical area related assistance information, • group related assistance information, • relay related assistance information, • resource allocation related assistance information, • link related assistance information, • distance related assistance information, • geographical area related assistance information, • group related assistance information, • relay related assistance information, characterized in that the UE (UE-A) is to send or transmit the one or more AlMs as a part of a data transmission, which is indicated by parameters in the accompanying control message, like a SCI, and the indication in the control message comprises one of the following: • a beta_offset_indicator in a first stage SCI, • a parameter to be set by the UE (UE-A) in a first stage SCI or second stage SCI for indicating the presence of the AIM in the PSSCH. • a beta_offset_indicator in a first stage SCI, • a parameter to be set by the UE (UE-A) in a first stage SCI or second stage SCI for indicating the presence of the AIM in the PSSCH.
A method for recording a blockchain ledger data, a blockchain network comprising a plurality of evidence-capturing nodes used for capturing network evidence, and the method comprising: by each of the evidence-capturing nodes, capturing (S300) network evidence from a target evidence source, and calculating an evidence hash of the captured network evidence; sending (S302) the calculated evidence hash to other evidence-capturing nodes, and receiving evidence hashes sent by other evidence-capturing nodes; gathering (S304) identical evidence hashes in all the obtained evidence hashes into the same group, and dividing different evidence hashes in all the obtained evidence hashes into different groups; counting (S306) a count number of evidence hashes in each of the groups, and determining an evidence hash in a group with a largest count number as a trusted evidence hash; and constructing (S308) a ledger data based on the trusted evidence hash as determined and recording the ledger data. by each of the evidence-capturing nodes, capturing (S300) network evidence from a target evidence source, and calculating an evidence hash of the captured network evidence; sending (S302) the calculated evidence hash to other evidence-capturing nodes, and receiving evidence hashes sent by other evidence-capturing nodes; gathering (S304) identical evidence hashes in all the obtained evidence hashes into the same group, and dividing different evidence hashes in all the obtained evidence hashes into different groups; counting (S306) a count number of evidence hashes in each of the groups, and determining an evidence hash in a group with a largest count number as a trusted evidence hash; and constructing (S308) a ledger data based on the trusted evidence hash as determined and recording the ledger data.
An injectable ocular composition comprising: i) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 200 to 20,000 Dalton; ii) a biodegradable polymer selected from the group consisting of lactide/glycolide copolymer (PLGA), polylactic acid (PLA), polyglycolic acid (PGA), polycaprolactone (PCL), lactide/caprolactone copolymer (PLC), poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; iii) a photoinitiator; and iv) a therapeutic agent. i) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 200 to 20,000 Dalton; ii) a biodegradable polymer selected from the group consisting of lactide/glycolide copolymer (PLGA), polylactic acid (PLA), polyglycolic acid (PGA), polycaprolactone (PCL), lactide/caprolactone copolymer (PLC), poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; iii) a photoinitiator; and iv) a therapeutic agent.
A refill for a volatile material dispensing system , comprising: a helical spring ; and a substrate wrapped around the outer perimeter of the spring , wherein the substrate is a semi-permeable material coated with a volatile material. a helical spring ; and a substrate wrapped around the outer perimeter of the spring , wherein the substrate is a semi-permeable material coated with a volatile material.
Method for melt-spinning synthetic threads, in which a polymer melt is conveyed through a multiple spinning pump and fed to a plurality of spinning nozzles at an operating pressure, in which the spinning nozzles extrude the polymer melt respectively into a multiplicity of filaments and in which the spinning nozzles are regularly serviced, characterized in that at least one service due time for servicing at least one of the spinning nozzles is predetermined or determined by a machine control device, and in that , once the service due time is reached, a control command for activating a spinning nozzle robot is generated by the machine control device, which control command at least initiates the servicing of the spinning nozzles.
A sensor relay apparatus that receives sensor data detected by each of a plurality of sensor terminals (ST), and relays and transfers the sensor data to other apparatuses utilizing a plurality of relay communication methods, comprising: a communication control unit configured to relay and transfer the sensor data received from the plurality of sensor terminals (ST) to the other apparatuses , wherein the communication control unit consecutively relays and transfers the sensor data received from the plurality of sensor terminals (ST) to one of the other apparatuses utilizing one of the plurality of relay communication methods preset in accordance with a sensor data transfer path to the one of the other apparatuses among the sensor data received from the plurality of sensor terminals.
A sulfur-based positive-electrode active material obtained by compounding in an unvulcanized diene rubber: sulfur and at least one of 1 to 60 parts by mass of a vulcanization accelerator based on 100 parts by mass of the diene rubber and 2 to 60 parts by mass of an electrically-conductive powder based on 100 parts by mass of the diene rubber, and heat-treating the compounded mixture under a non-oxidizing atmosphere at a temperature of 300°C to 550°C, the positive-electrode active material comprising a carbon-sulfur structure which has Raman shift peaks at around 500 cm -1 , at around 1,250 cm -1 and at around 1,450 cm -1 in a Raman spectrum. sulfur and at least one of 1 to 60 parts by mass of a vulcanization accelerator based on 100 parts by mass of the diene rubber and 2 to 60 parts by mass of an electrically-conductive powder based on 100 parts by mass of the diene rubber, and 1 to 60 parts by mass of a vulcanization accelerator based on 100 parts by mass of the diene rubber and 2 to 60 parts by mass of an electrically-conductive powder based on 100 parts by mass of the diene rubber, and heat-treating the compounded mixture under a non-oxidizing atmosphere at a temperature of 300°C to 550°C, the positive-electrode active material comprising a carbon-sulfur structure which has Raman shift peaks at around 500 cm -1 , at around 1,250 cm -1 and at around 1,450 cm -1 in a Raman spectrum.