mhurhangee/patent-ind-claim-en huggingface dataset:
A data transmission method in an optical network, comprising: obtaining (S301), by a first device, first synchronization information from a first service data stream, and determining a to-be-transmitted service data stream; generating (S302), by the first device, second synchronization information based on the first synchronization information; mapping (S303), by the first device, the second synchronization information and the to-be-transmitted service data stream to an optical carrier container; and sending (S304), by the first device, the optical carrier container of an Optical Transport Network, OTN, wherein the obtaining, by a first device, first synchronization information from a first service data stream, and determining a to-be-transmitted service data stream comprises: deleting, by the first device, the first synchronization information from the first service data stream, to obtain the to-be-transmitted service data stream, the first and second synchronization information correspond to time synchronization information, and the second synchronization information is generated, by using a 1588 time synchronization protocol, based on the first synchronization information and local clock information and by using a frame header of the OTN as a timestamp reference point. obtaining (S301), by a first device, first synchronization information from a first service data stream, and determining a to-be-transmitted service data stream; generating (S302), by the first device, second synchronization information based on the first synchronization information; mapping (S303), by the first device, the second synchronization information and the to-be-transmitted service data stream to an optical carrier container; and sending (S304), by the first device, the optical carrier container of an Optical Transport Network, OTN, wherein the obtaining, by a first device, first synchronization information from a first service data stream, and determining a to-be-transmitted service data stream comprises: deleting, by the first device, the first synchronization information from the first service data stream, to obtain the to-be-transmitted service data stream, the first and second synchronization information correspond to time synchronization information, and the second synchronization information is generated, by using a 1588 time synchronization protocol, based on the first synchronization information and local clock information and by using a frame header of the OTN as a timestamp reference point. deleting, by the first device, the first synchronization information from the first service data stream, to obtain the to-be-transmitted service data stream, the first and second synchronization information correspond to time synchronization information, and the second synchronization information is generated, by using a 1588 time synchronization protocol, based on the first synchronization information and local clock information and by using a frame header of the OTN as a timestamp reference point.
A computer program product comprising computer-executable code that, when executing on one or more computer devices performs steps comprising: receiving a plurality of location signals, each received location signal indicative of a respective location of a medical device in an anatomic structure of a patient; forming a three-dimensional data structure representing locations, within the anatomic structure, visited by the medical device at the locations corresponding to the plurality of location signals; receiving one or more anchor portions representing locations relative to the anatomic structure; and generating a three-dimensional surface representation of the anatomic structure of the patient, the three-dimensional surface representation of the anatomic structure of the patient constrained relative to the one or more anchor portions and to contain at least a portion of the three-dimensional data structure , and wherein generating the three-dimensional surface representation of the anatomic structure of the patient includes a volumetric smoothing, and further wherein the one or more anchor portions constrain the volumetric smoothing; displaying, on a graphical user interface , at least one of a two-dimensional projection of the three-dimensional data structure , the one or more anchor portions , and a two-dimensional projection of the three-dimensional surface representation . receiving a plurality of location signals, each received location signal indicative of a respective location of a medical device in an anatomic structure of a patient; forming a three-dimensional data structure representing locations, within the anatomic structure, visited by the medical device at the locations corresponding to the plurality of location signals; receiving one or more anchor portions representing locations relative to the anatomic structure; and generating a three-dimensional surface representation of the anatomic structure of the patient, the three-dimensional surface representation of the anatomic structure of the patient constrained relative to the one or more anchor portions and to contain at least a portion of the three-dimensional data structure , and wherein generating the three-dimensional surface representation of the anatomic structure of the patient includes a volumetric smoothing, and further wherein the one or more anchor portions constrain the volumetric smoothing; displaying, on a graphical user interface , at least one of a two-dimensional projection of the three-dimensional data structure , the one or more anchor portions , and a two-dimensional projection of the three-dimensional surface representation .
A combustion system , comprising: a premix chamber configured to receive an oxidant and a fuel, wherein the premix chamber is configured to provide an oxidant-fuel mixture into a chamber volume; and a perforated reaction holder positioned within the chamber volume, wherein the perforated reaction holder is displaced from the premix chamber and aligned with the premix chamber to receive the oxidant-fuel mixture, wherein the perforated reaction holder carries a combustion reaction while at least part of the oxidant-fuel mixture combusts, wherein the perforated reaction holder includes perforations configured to collectively hold a majority portion of a combustion reaction supported by the oxidant-fuel mixture; and that a flame arrestor is positioned between the premix chamber and the perforated reaction holder , wherein the flame arrestor includes one or more layers of porous object, characterized in that the perforations have a lateral dimension (D) equal to or greater than a flame quenching distance of said oxidant-fuel mixture, wherein the flame arrestor is separated from the perforated reaction holder by a distance (D1) sufficient to prevent radiation heating of the flame arrestor to a temperature that reduces the effectiveness of the flame arrestor in stopping flame propagation into the premix chamber . a premix chamber configured to receive an oxidant and a fuel, wherein the premix chamber is configured to provide an oxidant-fuel mixture into a chamber volume; and a perforated reaction holder positioned within the chamber volume, wherein the perforated reaction holder is displaced from the premix chamber and aligned with the premix chamber to receive the oxidant-fuel mixture, wherein the perforated reaction holder carries a combustion reaction while at least part of the oxidant-fuel mixture combusts, wherein the perforated reaction holder includes perforations configured to collectively hold a majority portion of a combustion reaction supported by the oxidant-fuel mixture; and that a flame arrestor is positioned between the premix chamber and the perforated reaction holder , wherein the flame arrestor includes one or more layers of porous object, characterized in that the perforations have a lateral dimension (D) equal to or greater than a flame quenching distance of said oxidant-fuel mixture, wherein the flame arrestor is separated from the perforated reaction holder by a distance (D1) sufficient to prevent radiation heating of the flame arrestor to a temperature that reduces the effectiveness of the flame arrestor in stopping flame propagation into the premix chamber .
Ironless linear motor with a primary part and a secondary part which provides a magnetic path (M) for the primary part , the primary part being configured for a linear movement along the magnetic path (M), and the secondary part comprising: - a spacer element , - yoke plates which configure two limbs and are configured for fastening to the spacer element , with the result that they extend, lying opposite one another, in planes parallel to the magnetic path (M), - a multiplicity of permanent magnets which are attached to inner sides, pointing towards the magnetic path (M), of the yoke plates , - the permanent magnets each having a width (a, a') which decreases in a direction of extent (Z) pointing perpendicularly towards the magnetic path (M), with the result that the air gap width (X) is constant along the direction of extent (Z); characterized in that - the primary part has a width (b) which is constant along the direction of extent (Z). - a spacer element , - yoke plates which configure two limbs and are configured for fastening to the spacer element , with the result that they extend, lying opposite one another, in planes parallel to the magnetic path (M), - a multiplicity of permanent magnets which are attached to inner sides, pointing towards the magnetic path (M), of the yoke plates , - the permanent magnets each having a width (a, a') which decreases in a direction of extent (Z) pointing perpendicularly towards the magnetic path (M), with the result that the air gap width (X) is constant along the direction of extent (Z); characterized in that - the primary part has a width (b) which is constant along the direction of extent (Z).
An aqueous pharmaceutical composition formulated for parenteral administration comprising a complex comprising allopregnanolone and sulfobutyl ether β-cyclodextrin, wherein the allopregnanolone is at a concentration of 5 mg/ml and the sulfobutyl ether β-cyclodextrin is at a concentration between 25-400 mg/mL, wherein the formulation is buffered to a pH of 6 and the buffer is a citrate buffer.
Server of a cellular network, said server being characterized in that it includes: - means for receiving an identifier of a user (U1), an identifier of a restricted-access cell (RAC1), access to which is reserved for a closed set of users and is authorized for this user (U1), and at least one identifier (MC1) of a detection area of said restricted-access cell, said detection area corresponding to the coverage area of a cell of the cellular network and being detected by an access point for the restricted-access cell, said identifiers of the user, of the restricted-access cell and of the detection area being received by the receiving means from the access point for said restricted-access cell; - means for storing said received identifiers (U1, MC1, RAC1); - means (14; 24) for sending said identifier (RAC1) of said restricted-access cell to a mobile terminal of said user (U1), said server further including means for detecting that said mobile terminal is in a detection area of a restricted-access cell, access to which is, however, authorized for a user (U1) of the terminal , and in that said means for sending said restricted-access cell identifier (RAC1) to said mobile terminal are activated when said mobile terminal is in said detection area. - means for receiving an identifier of a user (U1), an identifier of a restricted-access cell (RAC1), access to which is reserved for a closed set of users and is authorized for this user (U1), and at least one identifier (MC1) of a detection area of said restricted-access cell, said detection area corresponding to the coverage area of a cell of the cellular network and being detected by an access point for the restricted-access cell, said identifiers of the user, of the restricted-access cell and of the detection area being received by the receiving means from the access point for said restricted-access cell; - means for storing said received identifiers (U1, MC1, RAC1); - means (14; 24) for sending said identifier (RAC1) of said restricted-access cell to a mobile terminal of said user (U1), said server further including means for detecting that said mobile terminal is in a detection area of a restricted-access cell, access to which is, however, authorized for a user (U1) of the terminal , and in that said means for sending said restricted-access cell identifier (RAC1) to said mobile terminal are activated when said mobile terminal is in said detection area.
An autonomous driving safety control system based on edge infrastructure, the autonomous driving safety control system comprising: an autonomous driving system controlling autonomous driving; an error detection unit detecting a fallback situation; and a safety controller driving a safety process for each fallback situation by interworking with an edge infrastructure when a fallback situation occurs, wherein, when the error detection unit detects a fallback situation in which it is impossible to switch a driving control right to a driver, and either autonomous driving of the autonomous driving system is impossible, or a fallback minimal risk maneuver, MRM, set in the autonomous driving system itself is impossible and location information of a safety zone where an emergency stop is possible is not received, the safety controller makes an emergency stop by controlling the autonomous driving system in conjunction with the edge infrastructure, transmits the fallback situation and location information generated by detecting a location of a passenger who escapes to the outside of the vehicle, and shares the location information of the passenger through the edge infrastructure. an autonomous driving system controlling autonomous driving; an error detection unit detecting a fallback situation; and a safety controller driving a safety process for each fallback situation by interworking with an edge infrastructure when a fallback situation occurs, wherein, when the error detection unit detects a fallback situation in which it is impossible to switch a driving control right to a driver, and either autonomous driving of the autonomous driving system is impossible, or a fallback minimal risk maneuver, MRM, set in the autonomous driving system itself is impossible and location information of a safety zone where an emergency stop is possible is not received, the safety controller makes an emergency stop by controlling the autonomous driving system in conjunction with the edge infrastructure, transmits the fallback situation and location information generated by detecting a location of a passenger who escapes to the outside of the vehicle, and shares the location information of the passenger through the edge infrastructure.
A method for measuring a height in a cabin of a plane applied to an electronic device , such as a wearable device, wherein the electronic device comprises an altimeter function when the electronic device is located in the cabin of the plane, comprising: displaying (S301), by the electronic device , an altitude obtained in a first detection manner, wherein the first detection manner is a default altitude detection manner of the electronic device and is a manner of detecting altitude using a barometric pressure sensor of the electronic device ; and if it is determined (S302) that a first switching condition is met, displaying (S303), by the electronic device , an altitude obtained in a second detection manner, different from the first detection manner, wherein the first switching condition comprises: the data obtained by the electronic device in the first detection manner is determined as invalid, and wherein it is determined that the data obtained in the first detection manner is invalid when a value by which an altitude value of the electronic device increases within a first preset duration is greater than a preset first height threshold indicating that the pressure in the cabin of the plane has been boosted. displaying (S301), by the electronic device , an altitude obtained in a first detection manner, wherein the first detection manner is a default altitude detection manner of the electronic device and is a manner of detecting altitude using a barometric pressure sensor of the electronic device ; and if it is determined (S302) that a first switching condition is met, displaying (S303), by the electronic device , an altitude obtained in a second detection manner, different from the first detection manner, wherein the first switching condition comprises: the data obtained by the electronic device in the first detection manner is determined as invalid, and wherein it is determined that the data obtained in the first detection manner is invalid when a value by which an altitude value of the electronic device increases within a first preset duration is greater than a preset first height threshold indicating that the pressure in the cabin of the plane has been boosted.
A method for stable ethanol steam reforming, wherein a catalytic ethanol reforming is carried out in two vessels operating in parallel mode both filled in with a catalyst active for this reaction, characterized in that while the first vessel, acting in reforming operation mode, is made flowing with an ethanol rich gaseous stream under pressure to generate an hydrogen rich stream, the second parallel vessel, acting in regeneration mode, is made flowing with superheated steam at pressure lower than the previous one in order to carry out the gasification of carbonaceous compounds deposited on the catalyst, wherein the regeneration temperature is higher than the reforming temperature, both temperatures being lower than or equal to 600°C.
A solubilizate consisting of curcumin in a content of less than or equal to 10 wt.%, preferably less than or equal to 8 wt.%, more preferably 3 wt.% to 7 wt.%, most preferably 1 wt.% to 3 wt.%; and at least tetranhydrocannabinol (THC) as at least one further active substance; and polysorbate 80 or a mixture of polysorbate 80 and polysorbate 20, or of polysorbate 80 and at least one sucrose ester of edible fatty acids wherein the solubilizate optionally contains up to 20 wt.%, preferably up to 15 wt.% of ethanol and/or up to 25 wt.%, preferably between 12 wt.% and 20 wt.%, most preferably up to 10 wt.% of glycerol, and/or additionally up to 10 wt.%, preferably up to 7 wt.% of water. curcumin in a content of less than or equal to 10 wt.%, preferably less than or equal to 8 wt.%, more preferably 3 wt.% to 7 wt.%, most preferably 1 wt.% to 3 wt.%; and at least tetranhydrocannabinol (THC) as at least one further active substance; and polysorbate 80 or a mixture of polysorbate 80 and polysorbate 20, or of polysorbate 80 and at least one sucrose ester of edible fatty acids wherein the solubilizate optionally contains up to 20 wt.%, preferably up to 15 wt.% of ethanol and/or up to 25 wt.%, preferably between 12 wt.% and 20 wt.%, most preferably up to 10 wt.% of glycerol, and/or additionally up to 10 wt.%, preferably up to 7 wt.% of water.
A use of a silyl functional compound b), which silyl functional compound comprises a N-O-Si bond, for improving the flame retardant properties of a composition comprising an organic polymer a), which is one of a thermoplastic polymer or a thermoset polymer or a mixture thereof.
A method of processing a powder comprising ash, the method comprising either: (i) (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, wherein the combination of (a) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules; or (ii) (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules, wherein the combination of (b) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules. (i) (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, wherein the combination of (a) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules; or (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, (ii) (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules, wherein the combination of (b) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules. (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules,
Temperature-adjustment-element assembly which has a support element , a frame element , a cover element , together with at least one temperature-adjustment-element (RR1, RR2, ....RRn; EE) available for through-flow by an energy-conveying medium, with a feed pipe and a discharge outlet for the energy-conveying medium, wherein the support element and the frame element together form a housing which encompasses the temperature-adjustment-element or elements (RR1, RR2, ....RRn; EE), wherein the cover element is mounted movably relative to the support element and the frame element , and is movable between a first position (S1) in which the cover element covers an opening of the housing , and a second position (S2) in which the cover element does not cover an opening of the housing , wherein it has inside the housing hanging means on which objects requiring intensive temperature adjustment, such as e.g. a hand towel, an item of clothing, footwear, etc. may be hung inside the housing, and wherein the temperature-adjustment-element or elements (RR1, RR2, ....RRn; EE) available for through-flow by an energy-conveying medium include a temperature-adjustment-element (RR1, RR2, ....RRn; EE) mounted on the cover element , characterised in that the temperature-adjustment-element or elements include a pipe register (RR1, RR2, ....RRn) available for through-flow by a heat exchanger fluid, with a feed pipe and a return pipe for the heat exchanger fluid.