mhurhangee/patent-ind-claim-en huggingface dataset:
Cooling unit of a turboshaft comprising a driving shaft and an impeller mounted in cantilever on said shaft , said driving shaft and said impeller each rotating around the same axis of rotation, the cooling unit comprising a mechanical fuse mounted between said driving shaft and said impeller , the mechanical fuse being fixed between said driving shaft and said impeller , said fuse comprising a body extending in a longitudinal direction parallel to said axis of rotation, characterised in that said body comprises a plurality of longitudinal bars , each bar being suitable for being deformed in bending, under the action of a torsional moment applied to all the bars, so as to form a breakable mechanical fuse.
Process for the continuous monitoring of the state of advancement of the oxidation of a fuel, comprising at least the following steps: a) determining at least one indicator of advancement of the oxidation reaction to be monitored, b) measuring the content of said indicator of advancement of the oxidation reaction in said fuel, c) classifying the state of advancement of the oxidation of said fuel, d) determining the measures to be implemented as a function of said classification, characterized in that said indicator of advancement is at least one intermediate or end product, or at least one co-product, of at least one of the oxidation reactions with one or more constituents of the fuel, in that the process determines whether a fuel is in an initial stage of oxidation, in an intermediate stage of oxidation or in an advanced stage of oxidation by determining the contents of said reaction intermediates, said co-products and/or said end products, and in that said indicator of advancement is one or more molecules belonging to families selected from aldehydes, alcohols, ketones, ketoacids, epoxides and carboxylic acids, or in that said indicator of advancement is at least one co-product, said co-products being one or more polymerized molecules derived from one or more monomers belonging to the families of linear or branched alkenes, of aromatics, of aldehydes, of alcohols, of ketones, of ketoacids, of epoxides and of carboxylic acids, and in that the classification is accomplished by comparing said measured contents of said indicator of advancement with the contents of said indicator of advancement present in said fuel after a period of forced oxidation, measured in accordance with EN 15751 which permits the determination of the induction period (IP) of said fuel, said state of advancement of oxidation then being: • initial, if said measured contents correspond to a period of oxidation (P1) of strictly less than 0.5 IP (0 IP ≤ P1 < 0.5 IP), • intermediate, if said measured contents correspond to a period of oxidation (P2) of greater than or equal to 0.5 IP and strictly less than 1 IP (0.5 IP ≤ P2 < IP), • advanced, if said measured contents correspond to a period of oxidation (P3) of greater than or equal to 1 IP (1 IP ≤ P3). a) determining at least one indicator of advancement of the oxidation reaction to be monitored, b) measuring the content of said indicator of advancement of the oxidation reaction in said fuel, c) classifying the state of advancement of the oxidation of said fuel, d) determining the measures to be implemented as a function of said classification, • initial, if said measured contents correspond to a period of oxidation (P1) of strictly less than 0.5 IP (0 IP ≤ P1 < 0.5 IP), • intermediate, if said measured contents correspond to a period of oxidation (P2) of greater than or equal to 0.5 IP and strictly less than 1 IP (0.5 IP ≤ P2 < IP), • advanced, if said measured contents correspond to a period of oxidation (P3) of greater than or equal to 1 IP (1 IP ≤ P3).
A method of sequencing a target nucleic acid polymer, comprising (a) modifying a target nucleic acid polymer by adding inserts into the target nucleic acid polymer to produce a modified nucleic acid polymer, wherein the modified nucleic acid polymer comprises a plurality of sequence regions from the target nucleic acid polymer and a plurality of internal inserts; wherein the inserts comprise ligands that attach to receptors on the solid support surface and are added into the target nucleic acid polymer by transposases, and each of the inserts comprise a first transposon element and a second transposon element that is contiguous with the first transposon element; (b) producing denatured fragments of the modified nucleic acid polymer in a vessel comprising a solid support surface, each fragment comprising one of the sequence regions; (c) capturing the fragments randomly at locations in a region of the solid support surface; (d) detecting the fragments at the locations and determining nucleotide sequences of the sequence regions; (e) determining relative physical distances between the fragments at the locations; and (f) producing a representation of the nucleotide sequence for the target nucleic acid polymer based on the nucleotide sequences from the fragments and the relative physical distances between the locations on the solid support surface, wherein (a) comprises forming transposomes, each transposome comprising a transposase associated with the first transposon element and the second transposon element. (a) modifying a target nucleic acid polymer by adding inserts into the target nucleic acid polymer to produce a modified nucleic acid polymer, wherein the modified nucleic acid polymer comprises a plurality of sequence regions from the target nucleic acid polymer and a plurality of internal inserts; wherein the inserts comprise ligands that attach to receptors on the solid support surface and are added into the target nucleic acid polymer by transposases, and each of the inserts comprise a first transposon element and a second transposon element that is contiguous with the first transposon element; (b) producing denatured fragments of the modified nucleic acid polymer in a vessel comprising a solid support surface, each fragment comprising one of the sequence regions; (c) capturing the fragments randomly at locations in a region of the solid support surface; (d) detecting the fragments at the locations and determining nucleotide sequences of the sequence regions; (e) determining relative physical distances between the fragments at the locations; and (f) producing a representation of the nucleotide sequence for the target nucleic acid polymer based on the nucleotide sequences from the fragments and the relative physical distances between the locations on the solid support surface,
A computer implemented method of identifying and programming one or more devices in an environment, the method comprising the steps of: receiving (S102) an image file representative of the environment in which the devices are to be installed, said image file comprising one or more indicia representative of a category of device to be installed in the environment, said indicia further comprising data representative of the requirements of the category of device; parsing (S104) the image file to identify the category of device, requirements and location of the device represented by each of the one or more indicia; receiving a user defined data set, said user defined data set defining one or more behaviours and properties associated with one or more categories of devices; for some or all of the one or more indicia present on the image file identifying (S104, S106) a device and associated device configuration data for the identified device including properties defined in the user defined data set, wherein the identified device complies with the requirements indicated by the indicia and furthermore wherein the identified device is selected according to the behaviours defined in the user defined data set corresponding to the identified category of device; writing data (S110, S112) comprising each identified device and associated device configuration data into a format readable by an installation system and programming (S114) said installation system with each identified device and associated device configuration data. receiving (S102) an image file representative of the environment in which the devices are to be installed, said image file comprising one or more indicia representative of a category of device to be installed in the environment, said indicia further comprising data representative of the requirements of the category of device; parsing (S104) the image file to identify the category of device, requirements and location of the device represented by each of the one or more indicia; receiving a user defined data set, said user defined data set defining one or more behaviours and properties associated with one or more categories of devices; for some or all of the one or more indicia present on the image file identifying (S104, S106) a device and associated device configuration data for the identified device including properties defined in the user defined data set, wherein the identified device complies with the requirements indicated by the indicia and furthermore wherein the identified device is selected according to the behaviours defined in the user defined data set corresponding to the identified category of device; writing data (S110, S112) comprising each identified device and associated device configuration data into a format readable by an installation system and programming (S114) said installation system with each identified device and associated device configuration data.
A method for controlling temperature across different regions of a substrate, comprising: individually controlling a plurality of heating pixels disposed in a dielectric body of a substrate support assembly, the plurality of heating pixels providing temperature distributions on a first surface of the substrate disposed on a support surface of the dielectric body, the temperature distributions corresponding to a plurality of portions of at least one grating on a second surface of the substrate to be exposed to an ion beam; and exposing the substrate to the ion beam to form a plurality of fins on the at least one grating, the at least one grating having a distribution of depths corresponding to the temperature distributions, wherein: the temperature distributions include a first temperature at a first portion of the plurality of portions of the at least one grating and a second temperature at a second portion of the plurality of portions of the at least one grating; and the first temperature is different than the second temperature. individually controlling a plurality of heating pixels disposed in a dielectric body of a substrate support assembly, the plurality of heating pixels providing temperature distributions on a first surface of the substrate disposed on a support surface of the dielectric body, the temperature distributions corresponding to a plurality of portions of at least one grating on a second surface of the substrate to be exposed to an ion beam; and exposing the substrate to the ion beam to form a plurality of fins on the at least one grating, the at least one grating having a distribution of depths corresponding to the temperature distributions, wherein: the temperature distributions include a first temperature at a first portion of the plurality of portions of the at least one grating and a second temperature at a second portion of the plurality of portions of the at least one grating; and the first temperature is different than the second temperature. the temperature distributions include a first temperature at a first portion of the plurality of portions of the at least one grating and a second temperature at a second portion of the plurality of portions of the at least one grating; and the first temperature is different than the second temperature.
A storage and transport element for storing or transporting goods, wherein the storage and transport element has a base area of at least 0.2 m 2 and has a first region and a second region along its thickness, wherein the first region forms an upper side of the storage and transport element and has a dimensionally stable force-absorbing region with a load-bearing capacity of the storage and transport element in a range of ≥ 250 kg for absorbing a functional force, wherein the functional force comprises the weight force of goods to be transported, and wherein the force-absorbing region comprises a storage and transport pallet and further comprises a contact surface for coming into direct contact with the goods to be stored or transported, wherein the second region comprises a dimensionally flexible compensating region, which has a bag-like compensating element with a granular filling to serve to adapt the compensating area to the shape of a surface in contact with the compensating area, and wherein the second area is designed as the lower area of the storage and transport element .
A wand assembly for an extraction cleaner having a fluid delivery system and a fluid recovery system , the wand assembly comprising: a wand body , the wand body including: a fluid delivery pathway configured to receive a cleaning liquid via a delivery line and dispense the cleaning liquid through a distributor outlet ; a fluid recovery pathway configured to evacuate debris received via a working airflow pathway ; a fluid port fluidly connecting the fluid delivery and recovery pathways ; and characterized by : a valve assembly actuable between an inactive state, in which the valve assembly seals the fluid port and blocks a supply of fluid from the delivery line , to a delivery state, in which the valve assembly seals the fluid port and unblocks the supply of fluid from the delivery line , and a cleanout state, in which the valve assembly unseals the fluid port and blocks the supply of fluid toward the distributor outlet . a fluid delivery pathway configured to receive a cleaning liquid via a delivery line and dispense the cleaning liquid through a distributor outlet ; a fluid recovery pathway configured to evacuate debris received via a working airflow pathway ; a fluid port fluidly connecting the fluid delivery and recovery pathways ; and characterized by : a valve assembly actuable between an inactive state, in which the valve assembly seals the fluid port and blocks a supply of fluid from the delivery line , to a delivery state, in which the valve assembly seals the fluid port and unblocks the supply of fluid from the delivery line , and a cleanout state, in which the valve assembly unseals the fluid port and blocks the supply of fluid toward the distributor outlet .
A slotless type optical fiber cable , comprising: an optical unit formed by twisting a plurality of subunits in a spiral shape around a tension member made of a fiber body, each subunit being formed by collecting a plurality of ribbons in which a plurality of optical fibers are arranged and by twisting the collected ribbons in a spiral shape; a cable core that accommodates the optical unit; and a cable jacket provided around the cable core; wherein the tension member is disposed at a central position of the optical unit , and the ribbons are intermittent ribbons in which a connection part and a non-connection part are intermittently formed in the longitudinal direction between the optical fibers adjacent to each other. an optical unit formed by twisting a plurality of subunits in a spiral shape around a tension member made of a fiber body, each subunit being formed by collecting a plurality of ribbons in which a plurality of optical fibers are arranged and by twisting the collected ribbons in a spiral shape; a cable core that accommodates the optical unit; and a cable jacket provided around the cable core; wherein the tension member is disposed at a central position of the optical unit , and the ribbons are intermittent ribbons in which a connection part and a non-connection part are intermittently formed in the longitudinal direction between the optical fibers adjacent to each other.
A vehicle stabilizing system for balancing a vehicle, the system comprising: a handlebar, wherein the handlebar is to provide a manual steering input to a vehicle; a motor assembly, wherein the motor assembly is to provide an automatic steering input to the vehicle; characterised by a planetary gear assembly mechanically coupled to the handlebar and the motor assembly, wherein the planetary gear assembly is to rotate based on at least one of the manual steering input and the automatic steering input; and a steering system coupled to the planetary gear assembly, wherein the steering system is actuated based on the rotation of the planetary gear assembly. a handlebar, wherein the handlebar is to provide a manual steering input to a vehicle; a motor assembly, wherein the motor assembly is to provide an automatic steering input to the vehicle; characterised by a planetary gear assembly mechanically coupled to the handlebar and the motor assembly, wherein the planetary gear assembly is to rotate based on at least one of the manual steering input and the automatic steering input; and a steering system coupled to the planetary gear assembly, wherein the steering system is actuated based on the rotation of the planetary gear assembly.
A cabin of a vehicle, comprising: - a floor , - a first equipment component , - a second equipment component , and - a partitioning device , wherein the partitioning device is set up to provide a wall surface between the first equipment component and second equipment component largely perpendicular to the floor , wherein the partitioning device is positionable in at least two positions along a length running between the first equipment component and second equipment component , wherein partitioning device is lockable in its respective position on at least one of the floor , a cabin ceiling and a cabin lining, and wherein the partitioning device comprises a guiding device arranged flush in the cabin ceiling and extending over the at least two positions, and a stiff, dimensionally stable partition wall guided therein. - a floor , - a first equipment component , - a second equipment component , and - a partitioning device ,
An imaging and quantum cryptography apparatus , comprising: a light-refracting optical setup ; a light-directing optical setup ; an imaging sensor capturing light refracted from the light-refracting optical setup and directed to the imaging sensor by the light-directing optical setup; at least one of: a quantum key distribution (QKD) transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; characterized in that the imaging and quantum cryptography apparatus further comprising an alignment unit aligning the at least one of QKD transmitter and QKD receiver to a coupled QKD apparatus based on light signal passing via the light-directing optical setup and the light-refracting optical setup and by using an image of the coupled QKD apparatus captured by said imaging sensor during said alignment. a light-refracting optical setup ; a light-directing optical setup ; an imaging sensor capturing light refracted from the light-refracting optical setup and directed to the imaging sensor by the light-directing optical setup; at least one of: a quantum key distribution (QKD) transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; a quantum key distribution (QKD) transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; characterized in that the imaging and quantum cryptography apparatus further comprising an alignment unit aligning the at least one of QKD transmitter and QKD receiver to a coupled QKD apparatus based on light signal passing via the light-directing optical setup and the light-refracting optical setup and by using an image of the coupled QKD apparatus captured by said imaging sensor during said alignment.
A tank for storing a cryogenic fluid , in particular for storing liquefied natural gas, having an outer tank , an inner tank arranged inside the outer tank , a base insulation arranged between an outer tank base of the outer tank and an inner tank base of the inner tank , and a liquid-tight film arranged between the outer tank base and the inner tank base , wherein the film is integrally bonded to an outer tank wall of the outer tank , characterized in that the film has a metal, in particular aluminum, and/or in that the film is fiber-reinforced, in particular glass fiber-reinforced. the film has a metal, in particular aluminum, and/or in that the film is fiber-reinforced, in particular glass fiber-reinforced.