mhurhangee/patent-ind-claim-en huggingface dataset:
A method for calculating a load distribution among a plurality of rotary machines of a machine station comprising the following steps: - obtaining first data (D1) indicative of the operating status of said machine station and of said rotary machines at a first operating instant, second data (D2) indicative of the operating set-points established for said machine station and for said rotary machines at said first operating instant and third data (D3) indicative of the operating limits established for said machine station and for said rotary machines at said first operating instant; and - determining one or more first estimated performance parameters (αi) to estimate the performance of said rotary machines at a time neighborhood of said first operating instant, said time neighborhood comprising operating instants preceding and following said first operating instant and having an extension selected depending on the application; and - providing an optimization cost function (F) indicative of the objective performance for said rotary machines, said optimization cost function being set on the base of said first and second data (D1, D2) and said first estimated performance parameters (αi); and - providing an optimization problem (OP) on the base of said first, second data and third data (D1, D2, D3), said first estimated performance parameters (αi) and said optimization cost function (F); and - providing output data (DOUT) indicative of a load distribution among said rotary machines by solving said optimization problem. - obtaining first data (D1) indicative of the operating status of said machine station and of said rotary machines at a first operating instant, second data (D2) indicative of the operating set-points established for said machine station and for said rotary machines at said first operating instant and third data (D3) indicative of the operating limits established for said machine station and for said rotary machines at said first operating instant; and - determining one or more first estimated performance parameters (αi) to estimate the performance of said rotary machines at a time neighborhood of said first operating instant, said time neighborhood comprising operating instants preceding and following said first operating instant and having an extension selected depending on the application; and - providing an optimization cost function (F) indicative of the objective performance for said rotary machines, said optimization cost function being set on the base of said first and second data (D1, D2) and said first estimated performance parameters (αi); and - providing an optimization problem (OP) on the base of said first, second data and third data (D1, D2, D3), said first estimated performance parameters (αi) and said optimization cost function (F); and - providing output data (DOUT) indicative of a load distribution among said rotary machines by solving said optimization problem.
Vehicle tyre having a tread, two sidewalls, one tyre internal side , one tyre cavity, at least one carcass ply having reinforcement members aligned so as to be mutually parallel, and one breaker belt ply having reinforcement members aligned so as to be mutually parallel, wherein at least one tyre module is disposed in the tyre cavity; wherein the tyre module comprises an electronics module having a multiplicity of integrated electronic components, characterized in that a multiplicity of electrically conductive strip conductors are disposed in the circumferential direction of the vehicle tyre in the vehicle tyre so as to be encircling over the entire circumference of the vehicle tyre, wherein at least one of the strip conductors is used for supplying power, and at least a second strip conductor is used for transmitting signals; wherein a tyre module having a central function is disposed at a first position of the strip conductor , and at least one sensor for detecting tyre properties is disposed at least at a second position of the strip conductor .
An automatic analyzer for analyzing samples, comprising a housing at least partially enclosing at least one analyzing instrument 104), a drawer configured to be loaded with a plurality of reagent vessels , wherein the drawer is moveable in a longitudinal direction relative to the housing between a retracted position, in which the drawer is retracted in the housing , and extended positions, in which the drawer is extended from the housing , wherein the drawer defines arrangement positions for the reagent vessels at least in a first row parallel to the longitudinal direction , and a first detector associated with the first row and configured to identify the reagent vessels at a first detection position when arranged in the first row , wherein the automatic analyzer further comprises a first slider , wherein the first detector is mounted to the first slider , wherein the first slider is moveable between a slider retracted position, in which the first slider is retracted in the housing , and a slider extended position, in which the first slider is extended at a proximal position from the housing , wherein the slider extended position overlaps with the first detection position and the analyzer being arranged such that at the different extended positions of the drawer , different arrangement positions are aligned with the first detection position. a housing at least partially enclosing at least one analyzing instrument 104), a drawer configured to be loaded with a plurality of reagent vessels , wherein the drawer is moveable in a longitudinal direction relative to the housing between a retracted position, in which the drawer is retracted in the housing , and extended positions, in which the drawer is extended from the housing , wherein the drawer defines arrangement positions for the reagent vessels at least in a first row parallel to the longitudinal direction , and a first detector associated with the first row and configured to identify the reagent vessels at a first detection position when arranged in the first row , wherein the automatic analyzer further comprises a first slider , wherein the first detector is mounted to the first slider , wherein the first slider is moveable between a slider retracted position, in which the first slider is retracted in the housing , and a slider extended position, in which the first slider is extended at a proximal position from the housing , wherein the slider extended position overlaps with the first detection position and the analyzer being arranged such that at the different extended positions of the drawer , different arrangement positions are aligned with the first detection position.
A low silicon low carbon equivalent GPa grade multiphase steel plate/steel strip, comprising the following chemical elements by weight percentage: C: 0.03-0.07%, Si: 0.1-0.5%, Mn: 1.7-2.0%, P≤0.02%, S≤0.01%, N≤0.01%, Al: 0.01-0.05%, Cr: 0.4-0.7%, B: 0.001-0.005%, Ti: 0.07-0.15%, and further comprising Mo: 0.15-0.4%, and/or Nb: 0.02-0.08%, and a balance of Fe and other unavoidable impurities; at the same time, it satisfies: an effective content of B*≥ 0.001, the effective content of B*=B-[Ti-3.4N-1.2(C-Nb/7.8)]/22; CE< 0.58, CE=C+Mn/6+(Cr+Mo+V)/5+(Si+Ni+Cu)/15; wherein the microstructure of the steel plate/steel strip contains ferrite and lower bainite, as well as a small amount of carbide precipitation phase, other inclusion phase and/or trace martensite phase, wherein the content of ferrite is ≤20%, and the content of ferrite + lower bainite is ≥95 %; and wherein the steel plate/steel strip has a tensile strength of ≥980 MPa, a yield strength of ≥780 MPa; a hole expansion ratio performance satisfies that if the original hole is a punched hole, the hole expansion ratio is >50 %; if the original hole is a reamed hole, the hole expansion ratio is >60 %. an effective content of B*≥ 0.001, the effective content of B*=B-[Ti-3.4N-1.2(C-Nb/7.8)]/22; CE< 0.58, CE=C+Mn/6+(Cr+Mo+V)/5+(Si+Ni+Cu)/15; wherein the microstructure of the steel plate/steel strip contains ferrite and lower bainite, as well as a small amount of carbide precipitation phase, other inclusion phase and/or trace martensite phase, wherein the content of ferrite is ≤20%, and the content of ferrite + lower bainite is ≥95 %; and wherein the steel plate/steel strip has a tensile strength of ≥980 MPa, a yield strength of ≥780 MPa; a hole expansion ratio performance satisfies that if the original hole is a punched hole, the hole expansion ratio is >50 %; if the original hole is a reamed hole, the hole expansion ratio is >60 %.
An electric aircraft comprising: an airframe including a body ; a battery ; a plurality of motors , each motor coupled to a rotary wing and supported by a respective support shaft , the plurality of motors being arranged in at least a first pair of motors and a second pair of motors , the motors of each pair being spaced around the body in a 180-degree interval; and a first motor control circuitry configured to control the first pair of motors and a second motor control circuitry 12b, 12e) configured to control the second pair of motors; wherein the battery includes a plurality of battery modules , and wherein the battery is configured to supply power to the first motor control circuitry via a first power line, and wherein the battery is configured to supply power to the second motor control circuitry via a second power line, and wherein the battery is detachably attached to an inside of the body and is symmetric with respect to the center of gravity of the airframe, characterised in that the battery is being disposed and shaped to have a central opening , and wherein a total number of the battery modules is equal to a total number of the pairs of motors, wherein each of the plurality of battery modules supplies power to the respective pairs of motors. an airframe including a body ; a battery ; a plurality of motors , each motor coupled to a rotary wing and supported by a respective support shaft , the plurality of motors being arranged in at least a first pair of motors and a second pair of motors , the motors of each pair being spaced around the body in a 180-degree interval; and a first motor control circuitry configured to control the first pair of motors and a second motor control circuitry 12b, 12e) configured to control the second pair of motors; wherein the battery includes a plurality of battery modules , and wherein the battery is configured to supply power to the first motor control circuitry via a first power line, and wherein the battery is configured to supply power to the second motor control circuitry via a second power line, and wherein the battery is detachably attached to an inside of the body and is symmetric with respect to the center of gravity of the airframe, characterised in that the battery is being disposed and shaped to have a central opening , and wherein a total number of the battery modules is equal to a total number of the pairs of motors, wherein each of the plurality of battery modules supplies power to the respective pairs of motors.
A medical implant system for use in a left atrial appendage , comprising: an elongate delivery sheath having at least one lumen extending therethrough; an implant disposed within and deployable from the delivery sheath , the implant having an expandable frame including a plurality of legs each having an anchor at a distal end thereof, and a mesh attached to the expandable frame , the mesh having a plurality of openings therethrough; and a plurality of biocompatible, non-biodegradable particles disposed within the delivery sheath , wherein each of the plurality of particles is greater in size than all of the plurality of openings, wherein the delivery sheath is configured to release the plurality of particles distally of the implant , and the mesh is dimensioned and configured to retain the plurality of particles within the left atrial appendage and the plurality of particles is configured to randomly move freely within the left atrial appendage and suitable for lysing emboli that form therein, wherein the mesh includes an anti-thrombogenic surface, an anti-thrombogenic coating disposed thereon, an anti-thrombogenic agent embedded therein, and/or is formed from a non-thrombogenic composition, thereby retard ing tissue ingrowth thereon. an elongate delivery sheath having at least one lumen extending therethrough; an implant disposed within and deployable from the delivery sheath , the implant having an expandable frame including a plurality of legs each having an anchor at a distal end thereof, and a mesh attached to the expandable frame , the mesh having a plurality of openings therethrough; and a plurality of biocompatible, non-biodegradable particles disposed within the delivery sheath , wherein each of the plurality of particles is greater in size than all of the plurality of openings, wherein the delivery sheath is configured to release the plurality of particles distally of the implant , and the mesh is dimensioned and configured to retain the plurality of particles within the left atrial appendage and the plurality of particles is configured to randomly move freely within the left atrial appendage and suitable for lysing emboli that form therein, wherein the mesh includes an anti-thrombogenic surface, an anti-thrombogenic coating disposed thereon, an anti-thrombogenic agent embedded therein, and/or is formed from a non-thrombogenic composition, thereby retard ing tissue ingrowth thereon.
A pneumatic system for cleaning a particulate filter , said system comprising; - holding means to support a particulate filter; - air flow means for generating a pressurized air flow into said filter; - sealing means to provide an airtight seal at either end of the filter; - vibration generating means for imposing the filter to a structural resonant frequency; - a particle receptacle and wherein said system is characterized in that it comprises; - an entrance valve through which said pressurized air is fed into; - a first branch that drives the vibration generating means ; and - a second branch including at its entrance a valve and a first manometer with two pairs of fast acting valves (24, 24' and 25, 25') at either end of the particulate filter to control both the orientation of the air flow and the pressure inside the filter , with at one side of the filter an exit across a second manometer and at the other side of the filter an exit to the particle receptacle . - holding means to support a particulate filter; - air flow means for generating a pressurized air flow into said filter; - sealing means to provide an airtight seal at either end of the filter; - vibration generating means for imposing the filter to a structural resonant frequency; - a particle receptacle - an entrance valve through which said pressurized air is fed into; - a first branch that drives the vibration generating means ; and - a second branch including at its entrance a valve and a first manometer with two pairs of fast acting valves (24, 24' and 25, 25') at either end of the particulate filter to control both the orientation of the air flow and the pressure inside the filter , with at one side of the filter an exit across a second manometer and at the other side of the filter an exit to the particle receptacle .
A method of operating a network node , the method comprising: generating, for a user node , a sequence of at least two wake-up signal instances; and transmitting, as a burst transmission, the sequence of at least two wake-up signal instances, characterized by the method comprising: transmitting the sequence of at least two wake-up signal instances by using a frequency hopping pattern defining a frequency channel from an available set of frequency channels for each of the at least two wake-up signal instances. generating, for a user node , a sequence of at least two wake-up signal instances; and transmitting, as a burst transmission, the sequence of at least two wake-up signal instances, characterized by the method comprising: transmitting the sequence of at least two wake-up signal instances by using a frequency hopping pattern defining a frequency channel from an available set of frequency channels for each of the at least two wake-up signal instances.
A device for monitoring the lubrication status of a circulating belt , to which lubricant is applied, for the transportation of pressing material, more particularly in a continuously operating press , with at least one, when in use, first detection device (D1) of a first type, arranged in the area of the belt , and with at least one, when in use, second detection device (D2) of a second type, arranged in the area of the belt , wherein the first detection device (D1) is configured to produce a quantity signal (S1) as a function of the quantity of the material present on the belt , wherein to differentiate between a lubricant present on the belt and wood particles, or a lubricant contaminated with wood particles present on the belt , the second detection device (D2) is configured to produce a material signal (S2) as a function of the type of material present on the belt , which is dependent on whether clear lubricant or lubricant contaminated with wood particles or wood particles is/are present on the belt, characterised in that the first detection device (D1) comprises one or more capacitively operating sensors , which each have sensor plate , which when in use is arranged at a distance from the belt and with the belt forms a capacitor in each case, the capacitance of which depends on the quantity of material, namely clean lubricant, wood particles or lubricant contaminated with wood particles, present on the belt . with at least one, when in use, first detection device (D1) of a first type, arranged in the area of the belt , and with at least one, when in use, second detection device (D2) of a second type, arranged in the area of the belt , wherein the first detection device (D1) is configured to produce a quantity signal (S1) as a function of the quantity of the material present on the belt , wherein to differentiate between a lubricant present on the belt and wood particles, or a lubricant contaminated with wood particles present on the belt , the second detection device (D2) is configured to produce a material signal (S2) as a function of the type of material present on the belt , which is dependent on whether clear lubricant or lubricant contaminated with wood particles or wood particles is/are present on the belt, characterised in that the first detection device (D1) comprises one or more capacitively operating sensors , which each have sensor plate , which when in use is arranged at a distance from the belt and with the belt forms a capacitor in each case, the capacitance of which depends on the quantity of material, namely clean lubricant, wood particles or lubricant contaminated with wood particles, present on the belt .
An airflow conversion device, comprising a first portion , a second portion and an impeller structure , wherein a first flow channel is formed in the first portion , a second flow channel is formed in the second portion , and the impeller structure is configured as: when driving airflow is provided to one of the first flow channel and the second flow channel, the driving airflow makes the impeller structure to rotate, and under an action of the impeller structure , the other one of the first flow channel and the second flow channel generates airflow in an opposite direction from the driving airflow, wherein the impeller structure comprises a first impeller , a second impeller and a connecting shaft , the first impeller and the second impeller rotating synchronously, a deflection direction of blades of the first impeller and a deflection direction of blades of the second impeller being in opposite directions, the first impeller being located in the first flow channel, and the second impeller being located in the second flow channel, the first impeller and the second impeller being provided on the connecting shaft , characterized in that the airflow conversion device further comprises two partition structures which partition the first flow channel and the second flow channel after being spliced, each of the partition structures comprises a partition plate that is configured as a semi-circular ring structure, the two partition plates are spliced to form a circular ring structure, and the connecting shaft passes through an inner circle of the circular ring structure. the impeller structure is configured as: when driving airflow is provided to one of the first flow channel and the second flow channel, the driving airflow makes the impeller structure to rotate, and under an action of the impeller structure , the other one of the first flow channel and the second flow channel generates airflow in an opposite direction from the driving airflow, wherein the impeller structure comprises a first impeller , a second impeller and a connecting shaft , the first impeller and the second impeller rotating synchronously, a deflection direction of blades of the first impeller and a deflection direction of blades of the second impeller being in opposite directions, the first impeller being located in the first flow channel, and the second impeller being located in the second flow channel, the first impeller and the second impeller being provided on the connecting shaft , characterized in that the airflow conversion device further comprises two partition structures which partition the first flow channel and the second flow channel after being spliced, each of the partition structures comprises a partition plate that is configured as a semi-circular ring structure, the two partition plates are spliced to form a circular ring structure, and the connecting shaft passes through an inner circle of the circular ring structure.
A high power AC capacitor for connection with an AC current supply bus comprising first and second bus electrodes with a layer of electrically isolating material therebetween, the capacitor comprising: a first electrode including an electrically conductive rod (208; 250) protruding from a surface of the first electrode; a second electrode including an opening ; a bobbin located between the first and the second electrodes and having opposite ends in contact with the first and second electrodes, the bobbin including a hollow central section; wherein an axis (232; 236) of the electrically conductive rod (208; 250) protruding from the surface of the first electrode is coaxial with an axis of the hollow bobbin and wherein the electrically conductive rod (208; 250) passes through the hollow central section of the bobbin and through the opening in the second electrode allowing current flow such that, the AC capacitor can be mounted on the AC current supply bus, with the second electrode and the second bus electrode in electrical contact with one another and an end of the electrically conductive rod is terminated by a locking arrangement for passing through the AC current supply bus , the capacitor further comprising a locking element for engaging the locking arrangement of the electrically conductive rod to create a contact with the first bus electrode. a first electrode including an electrically conductive rod (208; 250) protruding from a surface of the first electrode; a second electrode including an opening ; a bobbin located between the first and the second electrodes and having opposite ends in contact with the first and second electrodes, the bobbin including a hollow central section;