mhurhangee/patent-ind-claim-en huggingface dataset:
Device comprising a housing having an unused cable feedthrough and a hardware- and software-based measuring apparatus for the device , wherein the measuring apparatus comprises at least one sensor for capturing measurement data relating to at least one physical parameter that characterizes the operating state of the device , wherein the measuring apparatus comprises autonomous electronics having a control unit and a means for supplying power , and wherein the control unit comprises a microcontroller that comprises a radio interface for data and/or signal transmission to a control and/or analysis apparatus , wherein the measuring apparatus comprises a housing intended for the unused cable feedthrough through the housing of the device and accordingly embodied as the blanking plug thereof, in which housing at least part of the measuring apparatus is arranged, wherein the housing of the measuring apparatus is fastened to the device in a retrofittable manner, characterized in that the blanking plug is essentially embodied as a hollow cylinder and comprises an external thread which is suitable for corresponding to an internal thread of the cable feedthrough of the device and being screwed such that the blanking plug is able to tightly seal the housing of the device . wherein the measuring apparatus comprises at least one sensor for capturing measurement data relating to at least one physical parameter that characterizes the operating state of the device , wherein the measuring apparatus comprises autonomous electronics having a control unit and a means for supplying power , and wherein the control unit comprises a microcontroller that comprises a radio interface for data and/or signal transmission to a control and/or analysis apparatus , wherein the measuring apparatus comprises a housing intended for the unused cable feedthrough through the housing of the device and accordingly embodied as the blanking plug thereof, in which housing at least part of the measuring apparatus is arranged, wherein the housing of the measuring apparatus is fastened to the device in a retrofittable manner, characterized in that the blanking plug is essentially embodied as a hollow cylinder and comprises an external thread which is suitable for corresponding to an internal thread of the cable feedthrough of the device and being screwed such that the blanking plug is able to tightly seal the housing of the device .
A blood purification device comprising: a blood removal line for delivering a blood taken out from a patient to a blood purifier ; a blood pump placed on the blood removal line , characterized in that the blood purification device further comprises a first transfusion line for supplying a first transfusion to the blood removal line on a side upstream of the blood pump ; a transfusion vessel connected to the first transfusion line ; a first opening/closing valve for opening or closing the first transfusion line ; a second transfusion line for supplying a second transfusion to the blood removal line on a side upstream of the blood pump ; a transfusion pump placed on the second transfusion line ; a second opening/closing valve placed in the blood removal line on a side upstream of the first transfusion line and the second transfusion line for opening or closing the blood removal line ; and a control unit for controlling the blood pump , the transfusion pump , the first opening/closing valve and the second opening/closing valve , wherein the control unit achieves automatic return of the blood to the patient by successively performing the following steps of: a first step of stopping operation of the blood pump and the transfusion pump , and opening the first transfusion line by means of the first opening/closing valve and closing the blood removal line by means of the second opening/closing valve ; a second step of performing forward rotation of the blood pump by a predetermined volume X to move the first transfusion from the first transfusion line to the blood removal line ; a third step of performing reverse rotation of the transfusion pump by a predetermined volume Y to move the first transfusion in the blood removal line to the second transfusion line ; a fourth step of closing the first transfusion line by means of the first opening/closing valve and opening the blood removal line by the second opening/closing valve ; and a fifth step of performing forward rotation of the transfusion pump by a predetermined volume Z to move the first transfusion in the second transfusion line to the blood removal line and return the first transfusion to the patient.
A method of manufacturing a multilayered fibrous product which comprises at least two overlapping layers, characterized by providing in a web forming process - a first layer containing mainly natural fibers, and - a second layer containing synthetic fibers or particles, wherein the first and the second layers are formed and joined together in a foam forming process, said first and said second layers being arranged in overlapping relationship and said second layer being capable of conferring properties of heat-sealing to the fibrous product and wherein - the first layer is formed into a web from a first slush having a first composition, and - the second layer is applied onto the web formed by first layer from a second slush having a second composition to form a multilayered web, said first composition being different from said second composition, and the first and second layers are formed by foam forming, wherein the second layer comprises at least 50% by weight, calculated from the total weight of the fibers of the second layer, of thermoplastic fibers and/or particles. - a first layer containing mainly natural fibers, and - a second layer containing synthetic fibers or particles, wherein the first and the second layers are formed and joined together in a foam forming process, said first and said second layers being arranged in overlapping relationship and said second layer being capable of conferring properties of heat-sealing to the fibrous product and wherein - the first layer is formed into a web from a first slush having a first composition, and - the second layer is applied onto the web formed by first layer from a second slush having a second composition to form a multilayered web, - the first layer is formed into a web from a first slush having a first composition, and - the second layer is applied onto the web formed by first layer from a second slush having a second composition to form a multilayered web, said first composition being different from said second composition, and the first and second layers are formed by foam forming, wherein the second layer comprises at least 50% by weight, calculated from the total weight of the fibers of the second layer, of thermoplastic fibers and/or particles.
A guide extension catheter assembly comprising: a guide extension catheter including: a shaft , a tubular member defining a proximal end opposite a distal end and a lumen open to the proximal and distal ends, wherein the shaft is coupled to the tubular member at the proximal end and extends proximally from the proximal end ; and a support device including: a push member , a shuttle member defining a leading end opposite a trailing end , wherein the push member is coupled to the shuttle member at the trailing end and extends proximally from the trailing end ; wherein the guide extension catheter assembly is configured to selectively provide a delivery state in which at least a portion of the shuttle member is disposed within the lumen , the leading end is distal the distal end , and the shuttle member is directly, physically connected to the tubular member such that a longitudinal distal force applied to the push member is transferred to the tubular member as a longitudinal distal force via the shuttle member . a guide extension catheter including: a shaft , a tubular member defining a proximal end opposite a distal end and a lumen open to the proximal and distal ends, wherein the shaft is coupled to the tubular member at the proximal end and extends proximally from the proximal end ; and a shaft , a tubular member defining a proximal end opposite a distal end and a lumen open to the proximal and distal ends, wherein the shaft is coupled to the tubular member at the proximal end and extends proximally from the proximal end ; and a support device including: a push member , a shuttle member defining a leading end opposite a trailing end , wherein the push member is coupled to the shuttle member at the trailing end and extends proximally from the trailing end ; a push member , a shuttle member defining a leading end opposite a trailing end , wherein the push member is coupled to the shuttle member at the trailing end and extends proximally from the trailing end ; wherein the guide extension catheter assembly is configured to selectively provide a delivery state in which at least a portion of the shuttle member is disposed within the lumen , the leading end is distal the distal end , and the shuttle member is directly, physically connected to the tubular member such that a longitudinal distal force applied to the push member is transferred to the tubular member as a longitudinal distal force via the shuttle member .
A turbocharger assembly comprising: a turbine ; a compressor ; a housing; one or more electronic components, the one or more electronic components comprising a processor and a memory ; and a peltier device ; wherein the peltier device is configured to provide electrical power to the processor , following the termination of power supply to the processor by another power source, to allow data to be written to the memory . a turbine ; a compressor ; a housing; one or more electronic components, the one or more electronic components comprising a processor and a memory ; and a peltier device ; wherein the peltier device is configured to provide electrical power to the processor , following the termination of power supply to the processor by another power source, to allow data to be written to the memory .
A gas conversion system using a microwave plasma, comprising: a microwave waveguide for transmitting microwaves therethrough; a gas flow tube passing through the microwave waveguide and configured to transmit the microwaves through the gas flow tube ; a temperature sensor configured to measure a temperature of the microwave waveguide ; a first temperature controlling means for controlling a temperature of the microwave waveguide , wherein the first temperature controlling means includes a cooling system using a coolant; an igniter located near the gas flow tube and configured to ignite a plasma inside the gas flow tube so that the plasma converts a gas flowing through the gas flow tube during operation; and a plasma detector located near the gas flow tube and configured to monitor the plasma; characterized in that the temperature sensor is disposed near the gas flow tube ; and that the first temperature controlling means is configured such that the temperature of the microwave waveguide is controlled based on the temperature measured by the temperature sensor near the gas flow tube . a microwave waveguide for transmitting microwaves therethrough; a gas flow tube passing through the microwave waveguide and configured to transmit the microwaves through the gas flow tube ; a temperature sensor configured to measure a temperature of the microwave waveguide ; a first temperature controlling means for controlling a temperature of the microwave waveguide , wherein the first temperature controlling means includes a cooling system using a coolant; an igniter located near the gas flow tube and configured to ignite a plasma inside the gas flow tube so that the plasma converts a gas flowing through the gas flow tube during operation; and a plasma detector located near the gas flow tube and configured to monitor the plasma;
Liver sinusoidal endothelial cells (LSECs) or activated LSECs for use in a method of enhancing liver regeneration in a mammal in need thereof, said liver regeneration comprising proliferation of hepatocytes and regeneration of liver mass, and said method comprising intrahepatic transplantation of said LSECs to said mammal, wherein said mammal is in need of proliferation of hepatocytes and regeneration of liver mass.
A method for operating a user equipment (104-110) in a wireless communication network , the user equipment (104-110) comprising a first communication unit for communicating with a communication network and a second communication unit for communicating directly with another user equipment (104-110) within a transmission range of the user equipment (104-110) via a device-to-device communication, the method comprising: - receiving, at the user equipment (104-110), a first warning indication, - determining a warning information based on the first warning indication, determining, if a forwarding of the warning information is required or allowed, and - if forwarding of the warning information is required or allowed: sending a second warning indication comprising the warning information via the device-to-device communication to the other user equipment (104-110). - receiving, at the user equipment (104-110), a first warning indication, - determining a warning information based on the first warning indication, determining, if a forwarding of the warning information is required or allowed, and - if forwarding of the warning information is required or allowed: sending a second warning indication comprising the warning information via the device-to-device communication to the other user equipment (104-110).
A user equipment , UE, for transmitting data in a wireless communication system, the UE comprising: a transceiver ; and a processor configured to: transmit user data with a compressed header in a non-access stratum, NAS, message; receive a response informing failure of header decompression of the compressed header; and based on receiving the response, transmit a full header, wherein the NAS message carrying the user data is a Service Request message, and wherein the response is carried in a Service Reject message. a transceiver ; and a processor configured to: transmit user data with a compressed header in a non-access stratum, NAS, message; receive a response informing failure of header decompression of the compressed header; and based on receiving the response, transmit a full header, wherein the NAS message carrying the user data is a Service Request message, and wherein the response is carried in a Service Reject message.
A method for producing a coated steel sheet, comprising the steps of: (a) reheating a steel slab containing 0.15-0.25 wt% of carbon (C), 0.5-1.5 wt% of silicon (Si), 1.5-2.5 wt% of manganese (Mn), 0.5-1.8 wt% of aluminum (Al), 0.3-2.0 wt% of chromium (Cr), more than 0 wt% but not more than 0.03 wt% of titanium (Ti), more than 0 wt% but not more than 0.03 wt% of niobium (Nb), not more than 0.015 wt% of phosphorus (P), not more than 0.002 wt% of sulfur (S), not more than 0.004 wt% of nitrogen (N) and a balance of iron (Fe) and unavoidable impurities, wherein titanium (Ti) and niobium (Nb) are contained so as to satisfy the following equation: 0.01 ≤ Ti + Nb ≤ 0.02 wt % wherein Ti and Nb represent the contents (wt%) of titanium (Ti) and niobium (Nb), respectively, in the steel slab; (b) hot-rolling, cooling and coiling the steel slab, thereby producing a hot-rolled steel sheet; (c) pickling the hot-rolled steel sheet, followed by cold rolling; (d) annealing the cold-rolled steel sheet at a temperature between 820°C and 870°C, followed by cooling at a finish-cooling temperature between 350°C and 450°C; (e) tempering the cooled steel sheet at a temperature between 450°C and 550°C; and (f) hot-dip galvanizing the tempered steel sheet. (a) reheating a steel slab containing 0.15-0.25 wt% of carbon (C), 0.5-1.5 wt% of silicon (Si), 1.5-2.5 wt% of manganese (Mn), 0.5-1.8 wt% of aluminum (Al), 0.3-2.0 wt% of chromium (Cr), more than 0 wt% but not more than 0.03 wt% of titanium (Ti), more than 0 wt% but not more than 0.03 wt% of niobium (Nb), not more than 0.015 wt% of phosphorus (P), not more than 0.002 wt% of sulfur (S), not more than 0.004 wt% of nitrogen (N) and a balance of iron (Fe) and unavoidable impurities, wherein titanium (Ti) and niobium (Nb) are contained so as to satisfy the following equation: 0.01 ≤ Ti + Nb ≤ 0.02 wt % wherein Ti and Nb represent the contents (wt%) of titanium (Ti) and niobium (Nb), respectively, in the steel slab; (b) hot-rolling, cooling and coiling the steel slab, thereby producing a hot-rolled steel sheet; (c) pickling the hot-rolled steel sheet, followed by cold rolling; (d) annealing the cold-rolled steel sheet at a temperature between 820°C and 870°C, followed by cooling at a finish-cooling temperature between 350°C and 450°C; (e) tempering the cooled steel sheet at a temperature between 450°C and 550°C; and (f) hot-dip galvanizing the tempered steel sheet.
A hearing device configured to be worn in an ear canal , wherein the hearing device comprises: - a housing having a first distal end configured to face towards the interior of the ear canal when the hearing device is arranged in the ear canal, - a nose portion provided in the first distal end of the housing; - a receiver provided in the housing , wherein a portion of the receiver protrudes from the housing at the nose portion , said hearing device further comprising: - an attachment member , said attachment member being configured to connect with the portion of the receiver protruding from the housing at the nose portion , and configured to receive a sealing element , such that said sealing element is configured to be removably attached to the nose portion via the attachment member , wherein said attachment member is configured to lockingly receive a corresponding receiving structure provided in said sealing element , and wherein the sealing element when mounted to said nose portion is configured to be arranged in a bony region of the ear canal when the hearing device is arranged in the ear canal. - a housing having a first distal end configured to face towards the interior of the ear canal when the hearing device is arranged in the ear canal, - a nose portion provided in the first distal end of the housing; - a receiver provided in the housing , wherein a portion of the receiver protrudes from the housing at the nose portion , said hearing device further comprising: - an attachment member , said attachment member being configured to connect with the portion of the receiver protruding from the housing at the nose portion , and configured to receive a sealing element , such that said sealing element is configured to be removably attached to the nose portion via the attachment member , wherein said attachment member is configured to lockingly receive a corresponding receiving structure provided in said sealing element , and - an attachment member , said attachment member being configured to connect with the portion of the receiver protruding from the housing at the nose portion , and configured to receive a sealing element , such that said sealing element is configured to be removably attached to the nose portion via the attachment member ,
Use of one or more stereoisomer(s) of the compound of formula (I) for modifying and/or enhancing, preferably for enhancing, the olfactory impression of one or more odorant/odorants with a lily-of-the-valley note, wherein the or one or several odorant(s) is or are selected from the group consisting of 7-hydroxy-3,7-dimethyloctanal, 4-(4-hydroxy-4-methylpentyl)-3-cyclohexene-1-carboxaldehyde, 2,2-dimethyl-3-(3-methylphenyl)propanol, cis-4-(1-methylethyl)cyclohexanemethanol, 1-(4-isopropylcyclohexyl)ethanol, 3-methyl-4-phenylbutan-2-ol, dimethylphenyl propanol, and compound of formula (II), preferably wherein the odorant is a compound of formula (II). for modifying and/or enhancing, preferably for enhancing, the olfactory impression of one or more odorant/odorants with a lily-of-the-valley note, wherein the or one or several odorant(s) is or are selected from the group consisting of 7-hydroxy-3,7-dimethyloctanal, 4-(4-hydroxy-4-methylpentyl)-3-cyclohexene-1-carboxaldehyde, 2,2-dimethyl-3-(3-methylphenyl)propanol, cis-4-(1-methylethyl)cyclohexanemethanol, 1-(4-isopropylcyclohexyl)ethanol, 3-methyl-4-phenylbutan-2-ol, dimethylphenyl propanol, and compound of formula (II), preferably wherein the odorant is a compound of formula (II).
A wireless transmit/receive unit, WTRU, comprising: a processor , configured at least to: receive an indication of a set of candidate resources; determine if a channel is clear for transmission by periodically performing, within a time period, clear channel assessment, CCA, or listen before talk, LBT, on the channel; wherein: on a condition that the channel is determined to be clear, determine a resource from the set of candidate resources based on a time remaining in the time period, wherein the resource comprises one or more frequency resources, and wherein a number of the one or more frequency resources is based on the time remaining in the time period; and send a transmission using the resource, wherein the transmission comprises a demodulation reference signal, DM-RS. receive an indication of a set of candidate resources; determine if a channel is clear for transmission by periodically performing, within a time period, clear channel assessment, CCA, or listen before talk, LBT, on the channel;
A process for separating mixtures of solids based on their densities, comprising: a) bringing a mixture of at least one plastic solid and at least one metal-containing solid having two distinct densities d1 and d2, into contact with a separating liquid (L) having a density d3, distinct from d1 and d2, wherein 1.5 < d3 < 2.0, wherein the separating fluid (L) is a fluorinated fluid selected from the group consisting of fluorinated polyethers, fluorinated alkyl polymers, fluorinated heteroalkyl polymers and hydrofluoroethers (HFE) and wherein the solids have a particle size ranging from 0.1 to 100 mm; b) separating the at least one plastic solid from the at least one metal-containing solid by a density separation; c) optionally repeating steps a) and b). a) bringing a mixture of at least one plastic solid and at least one metal-containing solid having two distinct densities d1 and d2, into contact with a separating liquid (L) having a density d3, distinct from d1 and d2, wherein 1.5 < d3 < 2.0, wherein the separating fluid (L) is a fluorinated fluid selected from the group consisting of fluorinated polyethers, fluorinated alkyl polymers, fluorinated heteroalkyl polymers and hydrofluoroethers (HFE) and wherein the solids have a particle size ranging from 0.1 to 100 mm; b) separating the at least one plastic solid from the at least one metal-containing solid by a density separation; c) optionally repeating steps a) and b).