mhurhangee/patent-ind-claim-en huggingface dataset:
A rope or belt sway detection system of an elevator system , comprising: a magnetic pickup disposed adjacent to a rope or belt of an elevator system , the magnetic pickup configured to detect a movement of the rope or belt via a change in a magnetic field at the magnetic pickup ; and a signal processing unit operably connected to the magnetic pickup , wherein the signal processing unit is configured to: determine a maximum amplitude of a sway of the rope or belt based on the change in the magnetic field ; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold. a magnetic pickup disposed adjacent to a rope or belt of an elevator system , the magnetic pickup configured to detect a movement of the rope or belt via a change in a magnetic field at the magnetic pickup ; and a signal processing unit operably connected to the magnetic pickup , wherein the signal processing unit is configured to: determine a maximum amplitude of a sway of the rope or belt based on the change in the magnetic field ; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold. determine a maximum amplitude of a sway of the rope or belt based on the change in the magnetic field ; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold.
Use of microgranules comprising destructurized starch in a complexed form with polymers containing hydrophilic groups intercalated with hydrophobic sequences as abrasive and/or structuring agents, in cosmetic, dermatological, detergent and cleansing formulations, characterized in that said cosmetic, dermatological, detergent and cleansing formulations comprise from 1 to 20% by weight, with respect to the total weight of the formulations, of said microgranules.
A method for wireless communication, comprising: randomly selecting a number from a range of numbers extending between a lower bound and an upper bound; contending for access to a shared radio frequency spectrum band by performing an extended clear channel assessment, CCA, procedure over a plurality of CCA slots, the plurality of CCA slots comprising a first number of CCA slots equal to the upper bound; and winning contention for access to the shared radio frequency spectrum band after determining, while performing the extended CCA procedure, if the shared radio frequency spectrum band is available for a second number of CCA slots equal to the randomly selected number, and failing to win contention for access to the shared radio frequency spectrum band after determining, while performing the extended CCA procedure, determining if the shared radio frequency spectrum band is unavailable for a third number of CCA slots equal to the first number of CCA slots, plus one, less the randomly selected number, if so discontinuing the extended CCA procedure and failing to win contention for access to the shared radio frequency spectrum. randomly selecting a number from a range of numbers extending between a lower bound and an upper bound; contending for access to a shared radio frequency spectrum band by performing an extended clear channel assessment, CCA, procedure over a plurality of CCA slots, the plurality of CCA slots comprising a first number of CCA slots equal to the upper bound; and winning contention for access to the shared radio frequency spectrum band after determining, while performing the extended CCA procedure, if the shared radio frequency spectrum band is available for a second number of CCA slots equal to the randomly selected number, and failing to win contention for access to the shared radio frequency spectrum band after determining, while performing the extended CCA procedure, determining if the shared radio frequency spectrum band is unavailable for a third number of CCA slots equal to the first number of CCA slots, plus one, less the randomly selected number, if so discontinuing the extended CCA procedure and failing to win contention for access to the shared radio frequency spectrum.
A system for determining an operating mode of a battery , the system comprising: a voltage sensor configured to detect a present voltage across terminals of the battery; a non-transitory memory configured to store previously detected voltages across the terminals of the battery, and a previous operating mode of the battery; and a processor coupled to the voltage sensor and the non-transitory memory and configured to: determine the operating mode of the battery by comparing the present voltage across the terminals of the battery to the previously detected voltages of the battery and based on the previous operating mode of the battery: determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode. a voltage sensor configured to detect a present voltage across terminals of the battery; a non-transitory memory configured to store previously detected voltages across the terminals of the battery, and a previous operating mode of the battery; and a processor coupled to the voltage sensor and the non-transitory memory and configured to: determine the operating mode of the battery by comparing the present voltage across the terminals of the battery to the previously detected voltages of the battery and based on the previous operating mode of the battery: determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode. determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode.
A balloon catheter visualization system for repairing a heart valve in a patient, the system comprising: one or more elongate shafts each shaft defining at least one lumen and comprising a distal end portion; a transparent balloon member coupled to the one or more elongate shafts and being in fluid communication with at least one lumen of the one or more elongate shafts; an imaging element disposed within the balloon member and coupled to a distal end portion of the one or more elongate shafts; a fastener releasably coupled to a distal end portion of the one or more elongate shafts; and a connector coupled to a distal end portion of the one or more elongate shafts, the connector adapted to fasten the fastener to tissue; wherein at least a portion of the balloon member defines a plurality of perforations . one or more elongate shafts each shaft defining at least one lumen and comprising a distal end portion; a transparent balloon member coupled to the one or more elongate shafts and being in fluid communication with at least one lumen of the one or more elongate shafts; an imaging element disposed within the balloon member and coupled to a distal end portion of the one or more elongate shafts; a fastener releasably coupled to a distal end portion of the one or more elongate shafts; and a connector coupled to a distal end portion of the one or more elongate shafts, the connector adapted to fasten the fastener to tissue;
A relief valve body arranged for connecting to a pressure vessel, the relief valve body comprising: an inlet configured to connect to a pressure vessel; an integrated nozzle downstream from the inlet and extending along an axis , the integrated nozzle defining a nozzle expansion region and including a nozzle exterior surface , a nozzle bulb defining a substantially protrudent shape that protrudes away from the axis, and a valve seat ; a valve interior surface including a first ramped portion , a second ramped portion , a flat portion , and an arced portion , the first ramped portion expanding a fluid flow area by ramping from a ramp apex around the integrated nozzle to the flat portion and the second ramped portion expanding the fluid flow area by ramping from the ramp apex around the integrated nozzle to the flat portion on an opposite side of the integrated nozzle from the first ramped portion; a redirecting pallet defining a curved portion and a flat portion that cooperate to direct a fluid flow towards the valve interior surface; and an outlet downstream from the first ramped portion and the second ramped portion. an inlet configured to connect to a pressure vessel; an integrated nozzle downstream from the inlet and extending along an axis , the integrated nozzle defining a nozzle expansion region and including a nozzle exterior surface , a nozzle bulb defining a substantially protrudent shape that protrudes away from the axis, and a valve seat ; a valve interior surface including a first ramped portion , a second ramped portion , a flat portion , and an arced portion , the first ramped portion expanding a fluid flow area by ramping from a ramp apex around the integrated nozzle to the flat portion and the second ramped portion expanding the fluid flow area by ramping from the ramp apex around the integrated nozzle to the flat portion on an opposite side of the integrated nozzle from the first ramped portion; a redirecting pallet defining a curved portion and a flat portion that cooperate to direct a fluid flow towards the valve interior surface; and an outlet downstream from the first ramped portion and the second ramped portion.
A laser-pumped plasma light source, comprising: a gas filled chamber , at least a part of which is optically transparent; a region of radiating plasma sustained in the chamber by a focused beam of a continuous wave, CW, laser ; at least one output beam of plasma radiation exiting the chamber , a means for plasma ignition characterized in that the means for plasma ignition is a pulsed laser system configured to generate a first laser beam in Q-switching mode and a second laser beam in free running mode, wherein the first and second laser beams are focused in the chamber , whereas said first laser beam is arranged for a gas optical breakdown, and said second laser beam is arranged for plasma ignition after the optical breakdown. the means for plasma ignition is a pulsed laser system configured to generate a first laser beam in Q-switching mode and a second laser beam in free running mode, wherein the first and second laser beams are focused in the chamber , whereas said first laser beam is arranged for a gas optical breakdown, and said second laser beam is arranged for plasma ignition after the optical breakdown.
Steel coiled tubing formed from a plurality of welded strips, wherein the coiled tubing includes base metal regions, weld joints, and their heat affected zones, with a yield strength greater than about 550MPa (80 ksi), comprising: a composition comprising: 0.17-0.35 wt. % carbon; 0.30-2.00 wt. % manganese; 0.10-0.30 wt. % silicon; 0.010-0.040 wt. % aluminum; up to 0.010 wt. % sulfur; up to 0.015 wt. % phosphorus; up to 1.0 wt. % chromium; up to 0.5 wt. % molybdenum; 0.0005 to 0.0025 wt. % boron; 0.010 to 0.025 wt. % titanium; up to 0.50 wt. % copper; up to 0.50 wt. % nickel; up to 0.1 wt. % niobium; up to 0.15 wt. % vanadium; up to 0.0050 wt. % oxygen; and up to 0.05 wt. % calcium, the remainder being iron and inevitable impurities; and a final microstructure comprising a mixture of tempered martensite and bainite; wherein the final microstructure of the coiled tubing comprises more than 90 volume % tempered martensite in the base metal regions, the weld joints, and the heat affected zones; wherein the final microstructure across all base metal regions, weld joints, and heat affected zones is homogeneous; wherein the final microstructure comprises a uniform distribution of fine carbides across the base metal regions, the weld joints, and the heat affected zones; and wherein the coiled tubing has a final grain size of below 20 μm in the base metal regions, the weld joints, and the heat affected zones. a composition comprising: 0.17-0.35 wt. % carbon; 0.30-2.00 wt. % manganese; 0.10-0.30 wt. % silicon; 0.010-0.040 wt. % aluminum; up to 0.010 wt. % sulfur; up to 0.015 wt. % phosphorus; up to 1.0 wt. % chromium; up to 0.5 wt. % molybdenum; 0.0005 to 0.0025 wt. % boron; 0.010 to 0.025 wt. % titanium; up to 0.50 wt. % copper; up to 0.50 wt. % nickel; up to 0.1 wt. % niobium; up to 0.15 wt. % vanadium; up to 0.0050 wt. % oxygen; and up to 0.05 wt. % calcium, the remainder being iron and inevitable impurities; and 0.17-0.35 wt. % carbon; 0.30-2.00 wt. % manganese; 0.10-0.30 wt. % silicon; 0.010-0.040 wt. % aluminum; up to 0.010 wt. % sulfur; up to 0.015 wt. % phosphorus; up to 1.0 wt. % chromium; up to 0.5 wt. % molybdenum; 0.0005 to 0.0025 wt. % boron; 0.010 to 0.025 wt. % titanium; up to 0.50 wt. % copper; up to 0.50 wt. % nickel; up to 0.1 wt. % niobium; up to 0.15 wt. % vanadium; up to 0.0050 wt. % oxygen; and up to 0.05 wt. % calcium, the remainder being iron and inevitable impurities; and a final microstructure comprising a mixture of tempered martensite and bainite; wherein the final microstructure of the coiled tubing comprises more than 90 volume % tempered martensite in the base metal regions, the weld joints, and the heat affected zones; wherein the final microstructure across all base metal regions, weld joints, and heat affected zones is homogeneous; wherein the final microstructure comprises a uniform distribution of fine carbides across the base metal regions, the weld joints, and the heat affected zones; and wherein the coiled tubing has a final grain size of below 20 μm in the base metal regions, the weld joints, and the heat affected zones.
A computer-implemented method for manipulating a virtual three-dimensional object in a virtual 3D space, the method comprising: displaying a representation of the 3D object on a display; determining a non-hemispherical arcball having a surface in the virtual 3D space; associating the non-hemispherical arcball with the representation of the 3D object; detecting a pointing device at a first position and at a second position; projecting the first position of the pointing device onto a first location on the surface of the non-hemispherical arcball; projecting the second position of the pointing device onto a second location on the surface of the non-hemispherical arcball; displaying a rotation of the representation of the 3D object on the display, the rotation based on a path of travel between the first location and the second location along the surface of the non-hemispherical arcball; wherein the non-hemispherical arcball has a base with a circular circumference; and the distance from circle center is given by sqrt(x 2 +y 2 ) with the sqrt(x 2 +y 2 ) being in the range of , the base having a center and the non-hemispherical arcball has a radius that varies as measured from the center of the base to the surface of the non-hemispherical arcball with the surface of the non-hemispherical arcball being described by the equation z = cos((sqrt(x 2 +y 2 ) a ∗ π/2) and a being a number in the range of [1.2; 1.4]. displaying a representation of the 3D object on a display; determining a non-hemispherical arcball having a surface in the virtual 3D space; associating the non-hemispherical arcball with the representation of the 3D object; detecting a pointing device at a first position and at a second position; projecting the first position of the pointing device onto a first location on the surface of the non-hemispherical arcball; projecting the second position of the pointing device onto a second location on the surface of the non-hemispherical arcball; displaying a rotation of the representation of the 3D object on the display, the rotation based on a path of travel between the first location and the second location along the surface of the non-hemispherical arcball; wherein the non-hemispherical arcball has a base with a circular circumference; and the distance from circle center is given by sqrt(x 2 +y 2 ) with the sqrt(x 2 +y 2 ) being in the range of , the base having a center and the non-hemispherical arcball has a radius that varies as measured from the center of the base to the surface of the non-hemispherical arcball with the surface of the non-hemispherical arcball being described by the equation z = cos((sqrt(x 2 +y 2 ) a ∗ π/2) and a being a number in the range of [1.2; 1.4].
Conveyor system for conveying goods having a. a lying conveyor for conveying the goods lying on the lying conveyor and b. an overhead conveyor , by way of which the goods are conveyed in a suspended manner on a goods carrier (15; 28), characterized in that - the lying conveyor has a sorting device with multiple delivery points at which the goods are provided in a sorted manner, - the sorting device has ramps for conveying the goods to the delivery points , - the overhead conveyor is connected to at least one of the delivery points for direct delivery of the goods to the at least one delivery point . a. a lying conveyor for conveying the goods lying on the lying conveyor and b. an overhead conveyor , by way of which the goods are conveyed in a suspended manner on a goods carrier (15; 28), - the lying conveyor has a sorting device with multiple delivery points at which the goods are provided in a sorted manner, - the sorting device has ramps for conveying the goods to the delivery points , - the overhead conveyor is connected to at least one of the delivery points for direct delivery of the goods to the at least one delivery point .
A controller of an air-fuel-ratio sensor that includes a gas sensor element , the gas sensor element including a pump cell that pumps and pumps out oxygen into and from a gas detecting chamber and a detection cell for detecting an oxygen concentration in the gas detecting chamber , the controller comprising: a current supplying unit that supplies a current (Ip) to the pump cell through a first terminal (Tip) connected with the pump cell so as to control the pump cell ; a sweep processing unit that executes a sweeping process in which a predetermined voltage (Vm) or a predetermined current (Im) is applied to the detection cell through a second terminal (Tvs) connected with the detection cell so as to change a voltage (Vs) and a current (Is) of the detection cell ; and an abnormality detecting unit that detects a short-circuited state between the first terminal (Tip) and the second terminal (Tvs) when a fluctuation in a voltage (Vp) or a current (Ip), generated by the sweeping process, of the first terminal (Tip) is a predetermined value or more. a current supplying unit that supplies a current (Ip) to the pump cell through a first terminal (Tip) connected with the pump cell so as to control the pump cell ; a sweep processing unit that executes a sweeping process in which a predetermined voltage (Vm) or a predetermined current (Im) is applied to the detection cell through a second terminal (Tvs) connected with the detection cell so as to change a voltage (Vs) and a current (Is) of the detection cell ; and an abnormality detecting unit that detects a short-circuited state between the first terminal (Tip) and the second terminal (Tvs) when a fluctuation in a voltage (Vp) or a current (Ip), generated by the sweeping process, of the first terminal (Tip) is a predetermined value or more.
An ultrasonic welding installation with an ultrasonic oscillating unit which comprises a sonotrode and a converter , wherein the sonotrode and the converter are arranged one after the other along a longitudinal axis, optionally with the interposition of an amplitude transformer, and the ultrasonic oscillating unit can be caused to resonate with an ultrasonic oscillation with a wavelength λ in the direction of the longitudinal axis, and with a counterpart tool , wherein the sonotrode comprises a sealing surface (12; 13) and the longitudinal axis extends parallel to the sealing surface or forms an angle of less than 90° with the latter, wherein the counterpart tool comprises a counterpart tool sealing surface which faces the sealing surface of the sonotrode , and the sonotrode and the counterpart tool are movable relative to one another in a processing direction perpendicular to the longitudinal axis, whereby the distance between the sealing surface of the sonotrode and the counterpart tool sealing surface can be adjusted, wherein the ultrasonic oscillating unit or the counterpart tool is held by a rotary holder which can be rotated about a rotation axis extending perpendicularly to the longitudinal axis, wherein the rotation axis is arranged in such a way that the distance between the sealing surface of the sonotrode and the counterpart tool sealing surface can be adjusted by rotating the rotary holder, wherein the ultrasonic oscillating unit or the counterpart tool is held by a linear mount which is connected to a linear guide by means of which the linear mount can be moved back and forth in the processing direction between two positions, characterized in that either the sonotrode or the counterpart tool is held by both the rotary holder and the linear mount.