mhurhangee/patent-ind-claim-en huggingface dataset:
A floor brush , comprising: a body ; a cover plate connected to the body , an end surface of the cover plate being provided with a collar portion ; and a rolling brush connected to the cover plate to form an integrated structure, the rolling brush having an end surface recessed inwards to form a sleeve portion and another end surface rotatably connected to another end surface of the cover plate , the sleeve portion being sleeved on the collar portion , and the rolling brush being rotatable relative to the collar portion , wherein: the integrated structure is detachably connected to the body ; and the cover plate is detachably connected to the rolling brush characterized in that the body has a sliding rail provided thereon; and the cover plate has a sliding member provided thereon, the sliding member being slidably inserted to the sliding rail, wherein the sliding rail and the sliding member both extend in an axial direction of the rolling brush . a body ; a cover plate connected to the body , an end surface of the cover plate being provided with a collar portion ; and a rolling brush connected to the cover plate to form an integrated structure, the rolling brush having an end surface recessed inwards to form a sleeve portion and another end surface rotatably connected to another end surface of the cover plate , the sleeve portion being sleeved on the collar portion , and the rolling brush being rotatable relative to the collar portion , wherein: the integrated structure is detachably connected to the body ; and the cover plate is detachably connected to the rolling brush characterized in that the body has a sliding rail provided thereon; and the cover plate has a sliding member provided thereon, the sliding member being slidably inserted to the sliding rail, wherein the sliding rail and the sliding member both extend in an axial direction of the rolling brush . the integrated structure is detachably connected to the body ; and the cover plate is detachably connected to the rolling brush characterized in that the body has a sliding rail provided thereon; and the cover plate has a sliding member provided thereon, the sliding member being slidably inserted to the sliding rail, wherein the sliding rail and the sliding member both extend in an axial direction of the rolling brush .
A method for sequentially translocating two non-covalently bound complementary nucleic acid strands through a nanopore, the method comprising: contacting a pair of non-covalently bound complementary nucleic acid strands with a nanopore under conditions that promote translocation of the first member of the pair of non-covalently bound complementary nucleic acid strands through the nanopore, wherein a binding site on a second member of the pair is exposed during translocation of the first member through the nanopore, and wherein the binding site reversibly binds to a tag that is present on the nanopore. contacting a pair of non-covalently bound complementary nucleic acid strands with a nanopore under conditions that promote translocation of the first member of the pair of non-covalently bound complementary nucleic acid strands through the nanopore, wherein a binding site on a second member of the pair is exposed during translocation of the first member through the nanopore, and wherein the binding site reversibly binds to a tag that is present on the nanopore.
A pump , comprising: a housing having a first end and a second end and a longitudinal axis; a discharge casing having a first end coupleable to the second end of the housing , the discharge casing extending along the longitudinal axis coaxial to the housing ; and characterised by a dismounting device including a first dismount casing and a second dismount casing disposed between the discharge casing and the second end of the housing , the dismounting device configured to extend along the longitudinal axis coaxial with the housing and the discharge casing, wherein the first dismount casing has a variable first thickness in the direction of the longitudinal axis and the second dismount casing has a variable second thickness in the direction of the longitudinal axis such that the first dismount casing is configured to mate with the second dismount casing so that the dismounting device has a cylindrical shape. a housing having a first end and a second end and a longitudinal axis; a discharge casing having a first end coupleable to the second end of the housing , the discharge casing extending along the longitudinal axis coaxial to the housing ; and characterised by a dismounting device including a first dismount casing and a second dismount casing disposed between the discharge casing and the second end of the housing , the dismounting device configured to extend along the longitudinal axis coaxial with the housing and the discharge casing, wherein the first dismount casing has a variable first thickness in the direction of the longitudinal axis and the second dismount casing has a variable second thickness in the direction of the longitudinal axis such that the first dismount casing is configured to mate with the second dismount casing so that the dismounting device has a cylindrical shape.
A three-dimensional printing system for solidifying a build material at a build plane in a layer-by-layer manner comprising: a laser module for emitting a light beam ; along a main optical path from the laser module to the build plane ; piano; a scan module including a motorized mirror and a sensor , the motorized mirror including a substrate with an optical coating that reflects at least 90% of the light beam power such that the mirror transmits no more than 10% of the light beam power, the sensor positioned to receive transmitted light from the motorized mirror ; and a controller configured to: operate the laser module to emit the light beam along the main optical path ; analyze a signal from the sensor ; and based upon the analysis, estimate a calibration error for the laser module . a laser module for emitting a light beam ; along a main optical path from the laser module to the build plane ; piano; a scan module including a motorized mirror and a sensor , the motorized mirror including a substrate with an optical coating that reflects at least 90% of the light beam power such that the mirror transmits no more than 10% of the light beam power, the sensor positioned to receive transmitted light from the motorized mirror ; and a controller configured to: operate the laser module to emit the light beam along the main optical path ; analyze a signal from the sensor ; and based upon the analysis, estimate a calibration error for the laser module . operate the laser module to emit the light beam along the main optical path ; analyze a signal from the sensor ; and based upon the analysis, estimate a calibration error for the laser module .
A method performed by an electronic device , the method comprising: determining that a battery temperature of a battery of the electronic device has exceeded a first temperature threshold; in response to the battery temperature exceeding the first temperature threshold, determining whether to initiate charging of the battery based on a first state-of-charge threshold; responsive to a determination that the state-of-charge of the battery is below the first state-of-charge threshold, obtaining local-weather-forecast data from a weather source over a network based on a geographic location of the electronic device ; estimating future battery temperatures for each of a plurality of future time periods based on the local-weather-forecast data combined with battery-temperature data associated with a plurality of device-performance throttling modes for the electronic device ; and identifying whether one or more future time periods of the plurality of future time periods exists within a next N number of days in which the estimated future battery temperature is below a second temperature threshold to enable the battery to be charged. determining that a battery temperature of a battery of the electronic device has exceeded a first temperature threshold; in response to the battery temperature exceeding the first temperature threshold, determining whether to initiate charging of the battery based on a first state-of-charge threshold; responsive to a determination that the state-of-charge of the battery is below the first state-of-charge threshold, obtaining local-weather-forecast data from a weather source over a network based on a geographic location of the electronic device ; estimating future battery temperatures for each of a plurality of future time periods based on the local-weather-forecast data combined with battery-temperature data associated with a plurality of device-performance throttling modes for the electronic device ; and identifying whether one or more future time periods of the plurality of future time periods exists within a next N number of days in which the estimated future battery temperature is below a second temperature threshold to enable the battery to be charged.
A method, comprising: obtaining cardiac image data; reconstructing a cardiac image based on the cardiac image data, wherein the cardiac image includes a plurality of first edges; obtaining a three-dimensional cardiac chamber model, wherein the three-dimensional cardiac chamber model includes a plurality of second edges corresponding to the plurality of first edges, the plurality of second edges define a plurality of chambers and include a plurality of control points, the three-dimensional cardiac chamber model is generated based on the plurality of control points and a correlation factor of at least one control point of the plurality of control points, the correlation factor of the at least one control point represents an influence of different chambers of the plurality of chambers on the at least one control point, and causes an adjustment of the at least one control point to be affected by the different chambers, thereby correlating the different chambers and improving a chamber boundary separation of the three-dimensional cardiac chamber model; matching , based on the one or more first edges and the one or more second edges, the three-dimensional cardiac chamber model and the cardiac image; and adjusting the one or more second edges of the three-dimensional cardiac chamber model based on the one or more first edges, wherein the at least one control point of the second edges is transformed based on a grid model of the correlation factor. obtaining cardiac image data; reconstructing a cardiac image based on the cardiac image data, wherein the cardiac image includes a plurality of first edges; obtaining a three-dimensional cardiac chamber model, wherein the three-dimensional cardiac chamber model includes a plurality of second edges corresponding to the plurality of first edges, the plurality of second edges define a plurality of chambers and include a plurality of control points, the three-dimensional cardiac chamber model is generated based on the plurality of control points and a correlation factor of at least one control point of the plurality of control points, the correlation factor of the at least one control point represents an influence of different chambers of the plurality of chambers on the at least one control point, and causes an adjustment of the at least one control point to be affected by the different chambers, thereby correlating the different chambers and improving a chamber boundary separation of the three-dimensional cardiac chamber model; matching , based on the one or more first edges and the one or more second edges, the three-dimensional cardiac chamber model and the cardiac image; and adjusting the one or more second edges of the three-dimensional cardiac chamber model based on the one or more first edges, wherein the at least one control point of the second edges is transformed based on a grid model of the correlation factor.
An ink jet digital printing machine for printing at least one container with a longitudinal axis (C), comprising a conveying table for conveying said at least one container and at least one printing station provided with at least one printing head , wherein said table has a rotation axis (L) and supports at least one support spindle on which said container is lockable, wherein said at least one spindle has an axis (M) oriented radially with respect to said rotation axis (L) of said conveying table , wherein said conveying table is configured to convey and station said at least one spindle at said at least one printing station wherein said at least one spindle can be activated in rotation on its axis (M), wherein the axis (M) of said at least one spindle stationed at said at least one printing station is parallel to the longitudinal axis (P) of said at least one printing head , wherein it comprises movement means for moving said at least one printing head , characterized by a detection station for detecting an eccentricity profile of said at least one container including distance sensor means of said at least one container locked on said at least one spindle rotating on itself, and an actuation controller for actuating said movement means configured to drive said movement means, during the rotation of said at least one spindle on itself at said at least one printing station, with an hourly law that is univocally determined by said detected eccentricity profile so as to maintain the distance of said at least one printing head from said at least one container constant.
A coaxial split torque gearbox comprising: a first pinion meshed with a first gear ; a second pinion attached to the first gear and meshed with a first bull gear , the first bull gear operable for transferring torque to cause a first rotor to rotate; and a third pinion attached to a second gear and meshed with a second bull gear , the second bull gear operable for transferring torque to cause a second rotor to rotate, the second gear being meshed with the first gear , and a number of teeth of the first gear being different than a number of teeth of the second gear ; characterized in that a number of gear and pinion teeth is defined by the following: Nb 1 * Ng 1 / Np 1 = Nb 2 * Ng 2 / Np 2 , wherein Nb1 is a number of first bull gear teeth, Ng1 is a number of first gear teeth, Np1 is a number of second pinion teeth, Nb2 is a number of second bull gear teeth, Ng2 is a number of second gear teeth, and Np2 is a number of third pinion teeth. a first pinion meshed with a first gear ; a second pinion attached to the first gear and meshed with a first bull gear , the first bull gear operable for transferring torque to cause a first rotor to rotate; and a third pinion attached to a second gear and meshed with a second bull gear , the second bull gear operable for transferring torque to cause a second rotor to rotate, the second gear being meshed with the first gear , and a number of teeth of the first gear being different than a number of teeth of the second gear ; characterized in that a number of gear and pinion teeth is defined by the following: Nb 1 * Ng 1 / Np 1 = Nb 2 * Ng 2 / Np 2 , wherein Nb1 is a number of first bull gear teeth, Ng1 is a number of first gear teeth, Np1 is a number of second pinion teeth, Nb2 is a number of second bull gear teeth, Ng2 is a number of second gear teeth, and Np2 is a number of third pinion teeth.
A catalyst comprising ferrite particles and a catalytically active component supported thereon, wherein the catalytically active component is at least one colloidal particle of a metal selected from gold, silver, copper, platinum, rhodium, ruthenium, palladium, nickel, and cobalt; wherein the ferrite particles are provided with an outer shell structure containing Ti oxide, wherein the thickness of the outer shell structure is 0.5 to 10 μm, and wherein the thickness of the outer shell structure is determined according to the method <Determination of the thickness of the outer shell structure> as set out in the description; wherein the ferrite particles contain 0.5 to 4 wt% of Mg, 3 to 20 wt% of Mn, 47 to 70 wt% Fe, 0.5 to 4.5 wt% of Ti, and 0 to 1.5 wt% Sr; and wherein the difference between the Ti content of the ferrite particles and the Ti content of the ferrite particles without the outer shell structure is 0.5 to 4.5 wt%, wherein the Ti contained in the outer shell structure is detected by the elemental mapping analysis on the cross-sectional SEM specimen with EDX as set out in the description. wherein the ferrite particles are provided with an outer shell structure containing Ti oxide, wherein the thickness of the outer shell structure is 0.5 to 10 μm, and wherein the thickness of the outer shell structure is determined according to the method <Determination of the thickness of the outer shell structure> as set out in the description; wherein the ferrite particles contain 0.5 to 4 wt% of Mg, 3 to 20 wt% of Mn, 47 to 70 wt% Fe, 0.5 to 4.5 wt% of Ti, and 0 to 1.5 wt% Sr; and wherein the difference between the Ti content of the ferrite particles and the Ti content of the ferrite particles without the outer shell structure is 0.5 to 4.5 wt%, wherein the Ti contained in the outer shell structure is detected by the elemental mapping analysis on the cross-sectional SEM specimen with EDX as set out in the description.
A wireless power transfer (WPT) enabled communication device , comprising: a plurality of modules configured to provide communication with communication devices according to a plurality of communication standards; a communication interface configured to communicatively couple the plurality of modules to one another, wherein a first module from among the plurality of modules is configured to implement a communication standard from among the plurality of communication standards, a front end module of the first module being fabricated using a high voltage semiconductor process and an NFC controller of the first module being fabricated using a low voltage semiconductor process, wherein the first module is configured to provide near field communication (NFC) between the WPT enabled communication device and another near field communication (NFC) capable device in accordance with a NFC standard, and wherein the first module is further configured to inductively receive a magnetic field from another NFC capable device and to recover information from the magnetic field and to derive a harvested power from the magnetic field. a plurality of modules configured to provide communication with communication devices according to a plurality of communication standards; a communication interface configured to communicatively couple the plurality of modules to one another, wherein a first module from among the plurality of modules is configured to implement a communication standard from among the plurality of communication standards, a front end module of the first module being fabricated using a high voltage semiconductor process and an NFC controller of the first module being fabricated using a low voltage semiconductor process, wherein the first module is configured to provide near field communication (NFC) between the WPT enabled communication device and another near field communication (NFC) capable device in accordance with a NFC standard, and wherein the first module is further configured to inductively receive a magnetic field from another NFC capable device and to recover information from the magnetic field and to derive a harvested power from the magnetic field.
A virtual network device , wherein the virtual network device is configured to implement a broadband network gateway, BNG, function, and the virtual network device comprises a load balance unit and a first forwarding unit ; the load balance unit is configured to: receive a first data packet from a first user terminal, determine the first forwarding unit according to the first data packet and a first correspondence, and send the first data packet to the first forwarding unit , wherein the first correspondence indicates mapping from the first user terminal to the first forwarding unit ; and the first forwarding unit is configured to receive and forward the first data packet; wherein the virtual network device further comprises a first management unit ; the load balance unit is further configured to: before receiving the first data packet, receive a first get-online request packet from the first user terminal, determine the first management unit according to the first get-online request packet and a second correspondence, and send the first get-online request packet to the first management unit, wherein the second correspondence indicates mapping from the first user terminal to the first management unit. the load balance unit is configured to: receive a first data packet from a first user terminal, determine the first forwarding unit according to the first data packet and a first correspondence, and send the first data packet to the first forwarding unit , wherein the first correspondence indicates mapping from the first user terminal to the first forwarding unit ; and the first forwarding unit is configured to receive and forward the first data packet; wherein the virtual network device further comprises a first management unit ; the load balance unit is further configured to: before receiving the first data packet, receive a first get-online request packet from the first user terminal, determine the first management unit according to the first get-online request packet and a second correspondence, and send the first get-online request packet to the first management unit, wherein the second correspondence indicates mapping from the first user terminal to the first management unit.
Electronic assembly which extends along a stacking direction from a lower surface to an upper surface coupled by a lateral surface , the assembly comprises at least two elementary modules stacked along the stacking direction, which each comprise, along the stacking direction and from a back side to a front side , two high electron mobility transistors respectively called back transistor and front transistor , separated by an insulator layer , and having in common a source electrode , a drain electrode , and a gate electrode , the assembly of the front and back transistors being electrically connected in parallel, the electronic assembly comprises, arranged on the front side of each elementary module, a contact layer , electrically contacting the gate electrode of the considered elementary module on its front side , each of the contact layers comprising an electric contact point emerging onto the lateral surface.
A polypropylene resin composition, which comprises, based on the total weight of components (A) and (B), (A) 85 to 97% by weight of a propylene-ethylene block copolymer obtained by the polymerization of a propylene homopolymer with a propylene-ethylene rubber copolymer in stages in reactors; and (B) 3 to 15% by weight of a polyethylene, wherein, when the propylene-ethylene block copolymer (A) is extracted with a xylene solvent at room temperature according to the method outlined in the description, the content of the propylene-ethylene rubber copolymer measured as the amount of a solvent extract (or xylene soluble) is 25 to 40% by weight, the content of ethylene in the xylene soluble measured by FT-IR in accordance with ASTM D3900 is 35 to 45% by weight, and the content of ethylene in the propylene-ethylene block copolymer (A) measured by FT-IR in accordance with ASTM D3900 is 9 to 20% by weight.