mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining full physical contact between one or more ablation electrodes and wall tissue of a cavity, comprising: an expandable frame coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient , the expandable frame comprising one or more ablation electrodes disposed over an external surface of the frame, wherein the one or more ablation electrodes are configured to be placed in contact with wall tissue of the cavity; a stem electrode coupled to the distal end of the shaft proximally to the expandable frame, and an edge electrode coupled to the distal end of the shaft distally to the expandable frame; and a processor , which is configured to: measure one or more first impedances between one or more of the ablation electrodes and the stem electrode; measure one or more second impedances between one or more of the ablation electrodes and the edge electrode; and based on the first and second impedances, determine, for at least an ablation electrode from among the one or more ablation electrodes, whether the ablation electrode is in full physical contact with the wall tissue. an expandable frame coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient , the expandable frame comprising one or more ablation electrodes disposed over an external surface of the frame, wherein the one or more ablation electrodes are configured to be placed in contact with wall tissue of the cavity; a stem electrode coupled to the distal end of the shaft proximally to the expandable frame, and an edge electrode coupled to the distal end of the shaft distally to the expandable frame; and a processor , which is configured to: measure one or more first impedances between one or more of the ablation electrodes and the stem electrode; measure one or more second impedances between one or more of the ablation electrodes and the edge electrode; and based on the first and second impedances, determine, for at least an ablation electrode from among the one or more ablation electrodes, whether the ablation electrode is in full physical contact with the wall tissue. measure one or more first impedances between one or more of the ablation electrodes and the stem electrode; measure one or more second impedances between one or more of the ablation electrodes and the edge electrode; and based on the first and second impedances, determine, for at least an ablation electrode from among the one or more ablation electrodes, whether the ablation electrode is in full physical contact with the wall tissue.
Semiconductor component comprising a housing for an optoelectronic semiconductor component, in which the housing has a housing body , a first connecting lead and a second connecting lead , the first connecting lead and the second connecting lead each extending in a vertical direction through the housing body , a semiconductor chip being fastened to the first connecting lead , characterized in that an electrical control circuit for the semiconductor chip is arranged inside the housing .
An exchange device for a spinning line suitable to act in conjunction with a spinning frame side transport device carrying empty or dirty tubes and a roving frame side transport device , carrying bobbins , comprising - a peg carrier group comprising: i) a rotary drive shaft rotatable around an axis of rotation (Z); ii) a plurality of carriages supported by said rotary drive shaft, arranged angularly spaced, each carrying at least one peg for supporting the bobbins and the tubes ; iii) means for the radial motion of the carriages operatively connected to said carriages ; iv) means for the rotary motion of the rotary drive shaft operatively connected to said rotary drive shaft ; - means for the vertical motion of the peg carrier group ; characterized in that each carriage carries a plurality of pegs and in that the pegs carried by a carriage are spreadable so that the limit distance between said pegs in a first angular position in conjunction with the spinning frame side transport device is different from the limit distance between said pegs in a second angular position in conjunction with the roving frame side transport device . - a peg carrier group comprising: i) a rotary drive shaft rotatable around an axis of rotation (Z); ii) a plurality of carriages supported by said rotary drive shaft, arranged angularly spaced, each carrying at least one peg for supporting the bobbins and the tubes ; iii) means for the radial motion of the carriages operatively connected to said carriages ; iv) means for the rotary motion of the rotary drive shaft operatively connected to said rotary drive shaft ; i) a rotary drive shaft rotatable around an axis of rotation (Z); ii) a plurality of carriages supported by said rotary drive shaft, arranged angularly spaced, each carrying at least one peg for supporting the bobbins and the tubes ; iii) means for the radial motion of the carriages operatively connected to said carriages ; iv) means for the rotary motion of the rotary drive shaft operatively connected to said rotary drive shaft ; - means for the vertical motion of the peg carrier group ;
A process for manufacturing a glass-ceramic plate intended to cover or accommodate at least one heating element, in which a composition in the form of a solution of a liquid-to-pasty consistencyis applied on the precursor glass before ceramization, said composition comprising at least one metallic material with a refractive index greater than that of the glass-ceramic and/or a precursor of said material, said composition being baked during a ceramization cycle for obtaining a nanoscale layer having a thickness of less than 100 nm and being formed from at least 95% by weight of a metallic material, said metallic material being one or more compounds selected from aluminum oxide Al 2 O 3 , tin oxide SnO 2 , zirconium oxide ZrO 2 , titanium oxide TiO 2 , iron oxide Fe 2 O 3 , metallic sulfides, metallic nitrides.
Method of operating a wireless network, the wireless network comprising an access point configured to wirelessly connect user devices to a further network, wherein the access point is wirelessly operating at a wireless channel, wherein one or more wireless sources are transmitting radio signals in one or more wireless channels, the method comprising: obtaining data indicating a radio signal power present at the access point for each wireless channel; calculating an interference parameter indicating an interference on at least one wireless channel based on the obtained data, wherein the obtained data is weighted for each wireless channel based on a channel overlap parameter; obtaining a change of the calculated interference parameter in time; and determining whether to perform an action among performable actions based on the obtained change in the calculated interference parameter in time, wherein the action is changing the wireless channel used by the access point to a wireless channel for which a lower interference parameter is calculated. obtaining data indicating a radio signal power present at the access point for each wireless channel; calculating an interference parameter indicating an interference on at least one wireless channel based on the obtained data, wherein the obtained data is weighted for each wireless channel based on a channel overlap parameter; obtaining a change of the calculated interference parameter in time; and determining whether to perform an action among performable actions based on the obtained change in the calculated interference parameter in time, wherein the action is changing the wireless channel used by the access point to a wireless channel for which a lower interference parameter is calculated.
A complex suitable for cohesion of chromatids or chromosomes comprising (I) one or more first protein(s) and (II) one or more second protein(s), wherein the (I) first and the (II) second protein(s) each comprise ( i ) a chromatin-binding component, ( ii ) a protein-binding region being N-terminal of the chromatin-binding component (PBN region), ( iii ) a protein-binding region being C-terminal of the chromatin-binding component (PBC region); wherein (i) the chromatin binding components of the first and the second protein(s) are capable of binding to a target sequence on chromatids or chromosomes; and wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s), or wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s); and wherein the binding to the chromatids or chromosomes and the binding of the PBN and PBC regions of the first and second protein(s) reversibly tether chromatids or chromosomes. wherein the (I) first and the (II) second protein(s) each comprise ( i ) a chromatin-binding component, ( ii ) a protein-binding region being N-terminal of the chromatin-binding component (PBN region), ( iii ) a protein-binding region being C-terminal of the chromatin-binding component (PBC region); wherein (i) the chromatin binding components of the first and the second protein(s) are capable of binding to a target sequence on chromatids or chromosomes; and wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s), or wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s); and wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s), or wherein (I)(ii) the PBN region of the first protein(s) is/are capable of binding to (II)(iii) the PBC region of the second protein(s) and wherein (I)(iii) the PBC region of the first protein(s) is/are capable of binding to (II)(ii) the PBN region of the second protein(s); and wherein the binding to the chromatids or chromosomes and the binding of the PBN and PBC regions of the first and second protein(s) reversibly tether chromatids or chromosomes.
A work vehicle comprising: a hydraulic power steering device for steering traveling wheels ; a vertically pivotable load carrying deck ; a hydraulic double-action type dump cylinder operably coupled to the load carrying deck and configured to pivotally elevate the load carrying deck with an expansion action and to pivotally lower the load carrying deck with a contraction action; a hydraulic pump for feeding pressure oil to an operational valve of the dump cylinder ; a bypass passage formed in the operational valve and configured to feed pressure oil from the hydraulic pump to the power steering device when the operational valve is under a neutral state; the work vehicle being characterized by further comprising an oil feeding passage equipped with an orifice, the oil feeding passage being configured to feed the pressure oil from the hydraulic pump to a rod side oil chamber of the dump cylinder when the operational valve is under the neutral state. a hydraulic power steering device for steering traveling wheels ; a vertically pivotable load carrying deck ; a hydraulic double-action type dump cylinder operably coupled to the load carrying deck and configured to pivotally elevate the load carrying deck with an expansion action and to pivotally lower the load carrying deck with a contraction action; a hydraulic pump for feeding pressure oil to an operational valve of the dump cylinder ; a bypass passage formed in the operational valve and configured to feed pressure oil from the hydraulic pump to the power steering device when the operational valve is under a neutral state; the work vehicle being characterized by further comprising an oil feeding passage equipped with an orifice, the oil feeding passage being configured to feed the pressure oil from the hydraulic pump to a rod side oil chamber of the dump cylinder when the operational valve is under the neutral state.
A sensor comprising: a single silicon substrate (102; 202; 302; 402) having a first (202a; 302a; 402a) and a second surface (202b; 302b; 402b); integrated circuitry (104; 206; 306; 406) on the first surface (202a; 302a; 402a) of the silicon substrate (102; 202; 302; 402); a sensor structure (106; 205; 305; 405) on the second surface (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) wherein the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406) are electrically coupled to each other, characterized in that the sensor further comprising one or more vias (108; 204; 304; 404) extending between the first (202a; 302a; 402a) and second surfaces (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) and between the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406), and wherein the one or more vias (108; 204; 304; 404) are electrically coupled to the integrated circuitry (104; 206; 306; 406) and to the sensor structure (106; 205; 305; 405). a single silicon substrate (102; 202; 302; 402) having a first (202a; 302a; 402a) and a second surface (202b; 302b; 402b); integrated circuitry (104; 206; 306; 406) on the first surface (202a; 302a; 402a) of the silicon substrate (102; 202; 302; 402); a sensor structure (106; 205; 305; 405) on the second surface (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) wherein the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406) are electrically coupled to each other, characterized in that the sensor further comprising one or more vias (108; 204; 304; 404) extending between the first (202a; 302a; 402a) and second surfaces (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) and between the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406), and wherein the one or more vias (108; 204; 304; 404) are electrically coupled to the integrated circuitry (104; 206; 306; 406) and to the sensor structure (106; 205; 305; 405).
An electrospinning system comprising a first spinneret disposed at a first end of a flowpath and biased at a first DC voltage, the first spinneret configured to dispense a first polymeric precursor into the flowpath forming a first plurality of nanofibers ; a collector disposed at a second end of the flowpath and spaced from the first spinneret along the flowpath , the collector biased at a second DC voltage different than the first DC voltage and configured to receive the first plurality of nanofibers ; a plurality of magnets and disposed about and radially spaced from the flowpath between the first spinneret and the collector , the plurality of magnets circumferentially spaced from one another about the flowpath and forming a first magnetic field which extends into the flowpath , wherein a second magnetic field in the first plurality of nanofibers interacts with the first magnetic field and the plurality of magnets are configured to adjust the first magnetic field so as to change a direction of movement of the first plurality of nanofibers along the flowpath between the first spinneret and the collector ; and a rapid thermal processing assembly for performing pyrolysis. a first spinneret disposed at a first end of a flowpath and biased at a first DC voltage, the first spinneret configured to dispense a first polymeric precursor into the flowpath forming a first plurality of nanofibers ; a collector disposed at a second end of the flowpath and spaced from the first spinneret along the flowpath , the collector biased at a second DC voltage different than the first DC voltage and configured to receive the first plurality of nanofibers ; a plurality of magnets and disposed about and radially spaced from the flowpath between the first spinneret and the collector , the plurality of magnets circumferentially spaced from one another about the flowpath and forming a first magnetic field which extends into the flowpath , wherein a second magnetic field in the first plurality of nanofibers interacts with the first magnetic field and the plurality of magnets are configured to adjust the first magnetic field so as to change a direction of movement of the first plurality of nanofibers along the flowpath between the first spinneret and the collector ; and a rapid thermal processing assembly for performing pyrolysis.
A compound of Formula Ib having the following structure: and which is in crystalline Form II characterized by an X-ray powder diffraction pattern having peaks at about 5.9°, 11.8°, and 15.5° 2θ ± 0.2° 2θ.
An air purifier which purifies the air in an indoor environment in a building comprising a body ; an air inlet opening provided on the body ; a fan which enables the air to be directed through the air inlet opening into the body ; and an air outlet opening which enables the air purified in the body to be released out of the body ; o a CO 2 absorbing unit into which the air is sucked; o a base dosing unit which supplies a base solution into the CO 2 absorbing unit ; ∘ an acid dosing unit which supplies an acid solution into the CO 2 absorbing unit ; ∘ a CO 2 tube enabling the carbon dioxide absorbed in the CO 2 absorbing unit to be discharged to outside the environment wherein the air is to be purified; and ∘ an electrodialysis unit wherein the salt formed after the base solution and the acid solution are respectively supplied to the CO 2 absorbing unit is resolved back to acid and base characterized by ∘ the CO 2 absorbing unit having a moving rotary table , and a plurality of tubes disposed on the rotary table or the CO 2 absorbing unit having a plurality of cartridges arranged side by side and in rows one under the other. o a CO 2 absorbing unit into which the air is sucked; o a base dosing unit which supplies a base solution into the CO 2 absorbing unit ; ∘ an acid dosing unit which supplies an acid solution into the CO 2 absorbing unit ; ∘ a CO 2 tube enabling the carbon dioxide absorbed in the CO 2 absorbing unit to be discharged to outside the environment wherein the air is to be purified; and ∘ an electrodialysis unit wherein the salt formed after the base solution and the acid solution are respectively supplied to the CO 2 absorbing unit is resolved back to acid and base characterized by ∘ the CO 2 absorbing unit having a moving rotary table , and a plurality of tubes disposed on the rotary table or the CO 2 absorbing unit having a plurality of cartridges arranged side by side and in rows one under the other.
A method comprising: forming a threaded pin end on a first expandable tubular member , wherein the threaded pin end has a first inner diameter ; forming a threaded box end on a second expandable tubular member , wherein a wall thickness of the threaded box end varies from being thinner near an extremity of threads , increases toward a face of the threaded box end , and increases toward a body of the second expandable tubular member; characterized by forming an expandable assembly having an expandable threaded connection with a first metal-to-metal seal by engaging the threaded box end and the threaded pin end ; wherein a thickness of the expandable threaded connection , which is a sum of a thickness of the threaded box end and a thickness of the threaded pin end , is maximum at a face of the threaded box end ; disposing the expandable assembly in a wellbore; and moving an expansion cone longitudinally through the first expandable tubular member , the expandable threaded connection , and the second expandable tubular member so as to radially expand the first inner diameter to an expanded inner diameter. forming a threaded pin end on a first expandable tubular member , wherein the threaded pin end has a first inner diameter ; forming a threaded box end on a second expandable tubular member , wherein a wall thickness of the threaded box end varies from being thinner near an extremity of threads , increases toward a face of the threaded box end , and increases toward a body of the second expandable tubular member; characterized by forming an expandable assembly having an expandable threaded connection with a first metal-to-metal seal by engaging the threaded box end and the threaded pin end ; wherein a thickness of the expandable threaded connection , which is a sum of a thickness of the threaded box end and a thickness of the threaded pin end , is maximum at a face of the threaded box end ; disposing the expandable assembly in a wellbore; and moving an expansion cone longitudinally through the first expandable tubular member , the expandable threaded connection , and the second expandable tubular member so as to radially expand the first inner diameter to an expanded inner diameter.
A method of data replication in a distributed storage system of a mobile communications network, the distributed storage system comprising a plurality of geographically separated storage locations, the method comprising, at a first storage location of the plurality of geographically separated storage locations: receiving one or more first requests for data stored in the distributed storage system; determining, based on the one or more first requests, further data to be stored at the first storage location, the further data being different to the data requested in the one or more first requests; determining a second storage location, of the plurality of storage locations, at which the determined further data is stored, the second storage location being different to the first storage location; sending, to the determined second storage location, a replication request for replicating the determined further data at the first storage location; receiving, in response to the replication request, the further data; and storing the further data such that the further data is replicated at the first storage location in advance of one or more further requests for the further data being received at the first storage location; wherein the determining the further data to be stored at the first storage location comprises: identifying a predefined access pattern with which the one or more first requests are associated; and determining the further data to be stored at the first storage location based on the identified predefined access pattern. receiving one or more first requests for data stored in the distributed storage system; determining, based on the one or more first requests, further data to be stored at the first storage location, the further data being different to the data requested in the one or more first requests; determining a second storage location, of the plurality of storage locations, at which the determined further data is stored, the second storage location being different to the first storage location; sending, to the determined second storage location, a replication request for replicating the determined further data at the first storage location; receiving, in response to the replication request, the further data; and storing the further data such that the further data is replicated at the first storage location in advance of one or more further requests for the further data being received at the first storage location; wherein the determining the further data to be stored at the first storage location comprises: identifying a predefined access pattern with which the one or more first requests are associated; and determining the further data to be stored at the first storage location based on the identified predefined access pattern.