mhurhangee/patent-ind-claim-en huggingface dataset:
A SEPIC type converter for converting a first DC voltage to a second different DC voltage, comprising: - a first NI node, which is used to connect a voltage source connected to ground, which provides the first voltage VIN; - a first LI inductance coupled to the first NI node and a second N2 node - a switch S1 comprising a first contact coupled to the node N2, and a second contact coupled to ground; - a first capacity C1 coupled to the node N2 to a third node N3 - a second inductance 1.2 coupled to the N3 node and a fourth N4 node ; - a D1 diode mounted between the Node N3 and a fifth Node N5 so that a current can flow from the Node N3 to the Node N5, which is used to connect a load circuit connected to ground; - a second capacity C2 coupled to the N5 node and mass; - an RS measuring resistor mounted between the Node N4 and the ground is characterized in that the converter comprises a branch which connects the Node NI to the Node N4, and which comprises a third C3 capacitor. - a first NI node, which is used to connect a voltage source connected to ground, which provides the first voltage VIN; - a first LI inductance coupled to the first NI node and a second N2 node - a switch S1 comprising a first contact coupled to the node N2, and a second contact coupled to ground; - a first capacity C1 coupled to the node N2 to a third node N3 - a second inductance 1.2 coupled to the N3 node and a fourth N4 node ; - a D1 diode mounted between the Node N3 and a fifth Node N5 so that a current can flow from the Node N3 to the Node N5, which is used to connect a load circuit connected to ground; - a second capacity C2 coupled to the N5 node and mass; - an RS measuring resistor mounted between the Node N4 and the ground is characterized in that the converter comprises a branch which connects the Node NI to the Node N4, and which comprises a third C3 capacitor.
A collar assembly for use in securing a nozzle assembly to a welding torch having a conductor tube which defines a circular groove , the collar assembly comprising: a collar body defining an exterior surface and an internal bore ; an internal flange extending radially inwardly and disposed at a distal end portion of the collar body ; characterised by : a wave spring , the wave spring having a first end disposed against the internal flange ; wherein the collar assembly further includes a locking ring disposed against a second end of the wave spring ; wherein in use the locking ring is received in the circular groove of the conductor tube . a collar body defining an exterior surface and an internal bore ; an internal flange extending radially inwardly and disposed at a distal end portion of the collar body ; characterised by : a wave spring , the wave spring having a first end disposed against the internal flange ; wherein the collar assembly further includes a locking ring disposed against a second end of the wave spring ; wherein in use the locking ring is received in the circular groove of the conductor tube . a wave spring , the wave spring having a first end disposed against the internal flange ; wherein the collar assembly further includes a locking ring disposed against a second end of the wave spring ; wherein in use the locking ring is received in the circular groove of the conductor tube .
A collapsible ladder having rungs secured to respective sections of two telescopically collapsible stiles , a foot defined by the lowermost sections of the two stiles, and at least one stabiliser bar secured to the foot of the ladder, the or each stabiliser bar being displaceable between a storage position in which the bar lies, at least predominantly, between the two stiles and a deployed position in which the bar widens the footprint of the ladder to improve the lateral stability of the ladder, characterized in that a spring biased catch mechanism is provided at the foot of the ladder to engage an inextensible member connected to at least one uppermost stile section when the ladder is collapsed, the catch mechanism being releasable by the associated stabiliser bar to permit the ladder to be extended only when the stabiliser bar is in the deployed position.
A method comprising: performing a write operation to write a logic state to a memory cell coupled with a first access line and a second access line , the memory cell comprising a memory element configurable to a more-crystalline atomic configuration associated with a first logic state and to a more-amorphous atomic configuration associated with a second logic state, wherein performing the write operation comprises: applying a write voltage to the memory cell to write the memory cell to the first or second logic state; and performing a read operation after performing the write operation, wherein performing the read operation comprises: applying a first voltage having a first polarity to the memory cell ; applying a second voltage having a second polarity different from the first polarity to the memory cell after applying the first voltage; applying a third voltage having the first polarity to the memory cell after applying the second voltage, wherein a magnitude of the second voltage is greater than a magnitude of the third voltage, and wherein applying the second voltage and applying the third voltage facilitates a reversion of the memory cell to a state as before the applying the first voltage; and determining the logic state stored by the memory cell based at least in part on applying the first voltage. applying a write voltage to the memory cell to write the memory cell to the first or second logic state; and performing a read operation after performing the write operation, wherein performing the read operation comprises: applying a first voltage having a first polarity to the memory cell ; applying a second voltage having a second polarity different from the first polarity to the memory cell after applying the first voltage; applying a third voltage having the first polarity to the memory cell after applying the second voltage, wherein a magnitude of the second voltage is greater than a magnitude of the third voltage, and wherein applying the second voltage and applying the third voltage facilitates a reversion of the memory cell to a state as before the applying the first voltage; and determining the logic state stored by the memory cell based at least in part on applying the first voltage.
A computer-implemented method of processing an image in a device, the method comprising determining a distortion correction ratio of each of a plurality of vertices comprised in a mesh type object of a source image, based on information about a lens through which the source image is projected (S510); obtaining changed depth values of each of the plurality of vertices based on the distortion correction ratio; determining a changed depth value of a pixel located between the plurality of vertices by interpolating the changed depth values of each of the plurality of vertices based on an interpolation ratio of the pixel (S520); and rendering a distortion-corrected image including perspective corrected pixel based on the changed depth value of the pixel and unchanged two-dimensional coordinates of the pixel (S530). determining a distortion correction ratio of each of a plurality of vertices comprised in a mesh type object of a source image, based on information about a lens through which the source image is projected (S510); obtaining changed depth values of each of the plurality of vertices based on the distortion correction ratio; determining a changed depth value of a pixel located between the plurality of vertices by interpolating the changed depth values of each of the plurality of vertices based on an interpolation ratio of the pixel (S520); and rendering a distortion-corrected image including perspective corrected pixel based on the changed depth value of the pixel and unchanged two-dimensional coordinates of the pixel (S530).
A lipid nanoparticle (LNP) encapsulating an mRNA coding for a therapeutic protein, wherein the LNP comprises a cationic lipid, a helper lipid, a structural lipid, and a stabilizer, wherein the cationic lipid is an ionizable lipid, wherein the stabilizer is a PEG lipid, and wherein the PEG lipid is a compound of Formula (V-OH): or a pharmaceutically acceptable salt thereof, wherein: r is an integer between 1 and 100, inclusive; and R 5 is optionally substituted C 10-40 alkyl, optionally substituted C 10-40 alkenyl, or optionally substituted C 10-40 alkynyl; and wherein the LNP does not trigger accelerated blood clearance. r is an integer between 1 and 100, inclusive; and R 5 is optionally substituted C 10-40 alkyl, optionally substituted C 10-40 alkenyl, or optionally substituted C 10-40 alkynyl; and wherein the LNP does not trigger accelerated blood clearance.
A sliced biological tissue sample having a biological tissue attached to a conductive adhesive film, wherein an electrical resistance between two points, separated by 75 mm or more, on a surface of the conductive adhesive film to which the biological tissue is attached is 1.0 × 10 -2 Ω to less than 2.0 × 10 7 Ω, and wherein a median value of a temperature range in which an adhesive of the conductive adhesive film exhibits glass transition in DSC measurement is -150 °C to -40 °C.
A method of forming an acoustical panel base mat, comprising: providing a green board slurry comprising an alkyl ether sulfate surfactant, wherein the green board slurry comprises from 10 to 40 wt% solids; the solids comprising 10% to 60% mineral wool, 35% to 85% mineral aggregate, 5% to 30% cellulose, 0.5% to 20% binder and 0.1% to 3.0% surfactant; and dewatering the green board slurry to form a dewatered green board, wherein the dewatering comprises supplying hot air and applying a vacuum to the green board slurry. providing a green board slurry comprising an alkyl ether sulfate surfactant, wherein the green board slurry comprises from 10 to 40 wt% solids; the solids comprising 10% to 60% mineral wool, 35% to 85% mineral aggregate, 5% to 30% cellulose, 0.5% to 20% binder and 0.1% to 3.0% surfactant; and dewatering the green board slurry to form a dewatered green board, wherein the dewatering comprises supplying hot air and applying a vacuum to the green board slurry.
An apparatus of a user equipment, UE, operable for wideband coverage enhancement, the apparatus comprising: one or more processors configured to: decode , at the UE, downlink control information, DCI, received in a physical downlink control channel, PDCCH; identify , at the UE, a transport block size, TBS, scaling factor from the DCI; identify , at the UE, a repetition number from the DCI, wherein the repetition number configures the UE to receive or transmit one or more of data and control channel information that is repeated, in the time domain, a selected number of times based on the repetition number; and encode , at the UE, one or more of data or control information, for transmission to a next generation node B, gNB, based on the TBS scaling factor and the repetition number; and a memory interface configured to send the DCI to a memory. one or more processors configured to: decode , at the UE, downlink control information, DCI, received in a physical downlink control channel, PDCCH; identify , at the UE, a transport block size, TBS, scaling factor from the DCI; identify , at the UE, a repetition number from the DCI, wherein the repetition number configures the UE to receive or transmit one or more of data and control channel information that is repeated, in the time domain, a selected number of times based on the repetition number; and encode , at the UE, one or more of data or control information, for transmission to a next generation node B, gNB, based on the TBS scaling factor and the repetition number; and decode , at the UE, downlink control information, DCI, received in a physical downlink control channel, PDCCH; identify , at the UE, a transport block size, TBS, scaling factor from the DCI; identify , at the UE, a repetition number from the DCI, wherein the repetition number configures the UE to receive or transmit one or more of data and control channel information that is repeated, in the time domain, a selected number of times based on the repetition number; and encode , at the UE, one or more of data or control information, for transmission to a next generation node B, gNB, based on the TBS scaling factor and the repetition number; and a memory interface configured to send the DCI to a memory.
Checking method for checking a power plant of an aircraft , said power plant comprising at least one motor and an air inlet that supplies air to said at least one motor , said power plant comprising a cloggable filter that filters the air upstream of said motor , wherein the method comprises a step of performing an aircraft power check by means of the following operations: - step STP1 of determining, in flight or on the ground, a current power (Pcour) developed by said motor within the aircraft, without taking into account a power loss produced by the arrangement of said motor in said aircraft and a degree of clogging of said filter , and of determining that said current power (Pcour) is greater than or equal to a stored guaranteed minimum power (Pmini), said aircraft power check being considered successful if said current power (Pcour) is greater than or equal to said guaranteed minimum power (Pmini), - if the aircraft power check fails, step STP2 of washing said filter , then step STP3 of performing a new aircraft power check, - if the new aircraft power check fails, step CSM of performing a motor health check as a function of a power loss produced at least by said filter or by opening an air bypass path that supplies said motor without filtering, - dismantling said motor outside the aircraft if the motor health check fails. - step STP1 of determining, in flight or on the ground, a current power (Pcour) developed by said motor within the aircraft, without taking into account a power loss produced by the arrangement of said motor in said aircraft and a degree of clogging of said filter , and of determining that said current power (Pcour) is greater than or equal to a stored guaranteed minimum power (Pmini), said aircraft power check being considered successful if said current power (Pcour) is greater than or equal to said guaranteed minimum power (Pmini), - if the aircraft power check fails, step STP2 of washing said filter , then step STP3 of performing a new aircraft power check, - if the new aircraft power check fails, step CSM of performing a motor health check as a function of a power loss produced at least by said filter or by opening an air bypass path that supplies said motor without filtering, - dismantling said motor outside the aircraft if the motor health check fails.
A method of forming a three-dimensional object, comprising: (a) providing a carrier and an optically transparent member having a build surface, said carrier and said build surface defining a build region therebetween; (b) filling said build region with a polymerizable liquid, said polymerizable liquid comprising a mixture of (i) a light polymerizable liquid first component, and (ii) a second solidifiable component that is different from said first component; (c) irradiating said build region with light through said optically transparent member to form a solid polymer scaffold from said first component and also advancing said carrier away from said build surface to form a three-dimensional intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object and containing said second solidifiable component carried in said scaffold in unsolidified form; and (d) subsequent to said irradiating step, solidifying said second solidifiable component in said three-dimensional intermediate by heating or microwave irradiating said second solidifiable component to form said three-dimensional object, optionally wherein said solidifying comprises curing said second solidifiable component, wherein said three-dimensional object comprises a polymer blend, interpenetrating polymer network, semi-interpenetrating polymer network, or sequential interpenetrating polymer network formed from said first component and said second component. (a) providing a carrier and an optically transparent member having a build surface, said carrier and said build surface defining a build region therebetween; (b) filling said build region with a polymerizable liquid, said polymerizable liquid comprising a mixture of (i) a light polymerizable liquid first component, and (ii) a second solidifiable component that is different from said first component; (c) irradiating said build region with light through said optically transparent member to form a solid polymer scaffold from said first component and also advancing said carrier away from said build surface to form a three-dimensional intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object and containing said second solidifiable component carried in said scaffold in unsolidified form; and (d) subsequent to said irradiating step, solidifying said second solidifiable component in said three-dimensional intermediate by heating or microwave irradiating said second solidifiable component to form said three-dimensional object, optionally wherein said solidifying comprises curing said second solidifiable component, wherein said three-dimensional object comprises a polymer blend, interpenetrating polymer network, semi-interpenetrating polymer network, or sequential interpenetrating polymer network formed from said first component and said second component.
A metal frame body, comprising: a top frame provided with a global positioning system, GPS, antenna; and a middle frame provided with a slot , wherein the top frame and the middle frame are electrically isolated from each other by a gap ; wherein the position of the slot corresponds with the position of the GPS antenna, wherein: the slot has a first point on a first side of the middle frame ; the slot is perpendicular to the first side; and the first side is adjacent to the gap , and the first side is one side among four sides of the middle frame ; wherein a projection of the first point on the first side is coincident with a projection of the GPS antenna on the first side; and wherein the slot has a length of m times a wavelength of a GPS signal that the GPS antenna is configured to receive, m being a numerical value between 1/8 and 1/2. a top frame provided with a global positioning system, GPS, antenna; and a middle frame provided with a slot , wherein the top frame and the middle frame are electrically isolated from each other by a gap ; wherein the position of the slot corresponds with the position of the GPS antenna, wherein: the slot has a first point on a first side of the middle frame ; the slot is perpendicular to the first side; and the first side is adjacent to the gap , and the first side is one side among four sides of the middle frame ; wherein a projection of the first point on the first side is coincident with a projection of the GPS antenna on the first side; and wherein the slot has a length of m times a wavelength of a GPS signal that the GPS antenna is configured to receive, m being a numerical value between 1/8 and 1/2.
A computer-implemented method comprising: detecting a version update of an object that includes a hash chain that stores a plurality of fields of the object ; identifying a plurality of sub chains from the hash chain ; generating a plurality of migration sub chains from the plurality of sub chains using a plurality of processes , wherein the plurality of sub chains are sent to separate processes of the plurality of processes and wherein the plurality of sub chains are processed individually; generating a plurality of container blocks from the plurality of migration sub chains ; generating a migration chain from the plurality of container blocks ; and accessing the object using the migration chain . detecting a version update of an object that includes a hash chain that stores a plurality of fields of the object ; identifying a plurality of sub chains from the hash chain ; generating a plurality of migration sub chains from the plurality of sub chains using a plurality of processes , wherein the plurality of sub chains are sent to separate processes of the plurality of processes and wherein the plurality of sub chains are processed individually; generating a plurality of container blocks from the plurality of migration sub chains ; generating a migration chain from the plurality of container blocks ; and accessing the object using the migration chain .
Method for detecting a user input on the basis of a gesture, in which image data are captured, the captured image data comprising picture elements and the picture elements having associated distance information, which is captured at least by a time-of-flight camera, an ultrasonic system, a laser scanner or a stereo camera, and the captured image data being filtered on the basis of the distance information; the filtered image data are used to perform a segmentation, an object being determined by an outline ; the object is used to determine a reference point ; a distance from the reference point is respectively determined for a multiplicity of points on the outline of the object and the distances are used to produce a measured distance profile , the reference point being the geometric centroid of the object ; the measured distance profile is used to determine a gesture; and the gesture determined is used to generate and output an output signal. image data are captured, the captured image data comprising picture elements and the picture elements having associated distance information, which is captured at least by a time-of-flight camera, an ultrasonic system, a laser scanner or a stereo camera, and the captured image data being filtered on the basis of the distance information; the filtered image data are used to perform a segmentation, an object being determined by an outline ; the object is used to determine a reference point ; a distance from the reference point is respectively determined for a multiplicity of points on the outline of the object and the distances are used to produce a measured distance profile , the reference point being the geometric centroid of the object ; the measured distance profile is used to determine a gesture; and the gesture determined is used to generate and output an output signal.
A liquid droplet discharging apparatus, comprising a liquid droplet discharging unit, wherein the liquid droplet discharging unit includes a nozzle surface , and a nozzle having an edge and a nozzle hole being formed in the nozzle surface , the liquid droplet discharging unit being configured to discharge a liquid through the nozzle, wherein a water contact angle of an adjoining region of the nozzle in the nozzle surface is greater than a water contact angle of any other region of the nozzle surface , the adjoining region has an inner rim and an outer rim and is a region present apart from the edge of the nozzle at a distance of 20 micrometers or less from the edge of the nozzle, and the distance between the inner rim and the outer rim of the adjoining region is greater than or equal to half the diameter of the nozzle hole but less than or equal to five times greater than the diameter of the nozzle hole . a liquid droplet discharging unit, wherein the liquid droplet discharging unit includes a nozzle surface , and a nozzle having an edge and a nozzle hole being formed in the nozzle surface , the liquid droplet discharging unit being configured to discharge a liquid through the nozzle, wherein a water contact angle of an adjoining region of the nozzle in the nozzle surface is greater than a water contact angle of any other region of the nozzle surface , the adjoining region has an inner rim and an outer rim and is a region present apart from the edge of the nozzle at a distance of 20 micrometers or less from the edge of the nozzle, and the distance between the inner rim and the outer rim of the adjoining region is greater than or equal to half the diameter of the nozzle hole but less than or equal to five times greater than the diameter of the nozzle hole .