mhurhangee/patent-ind-claim-en huggingface dataset:
A vectorial magnetometer, comprising : a sensory crystalline material substrate having defects sensitive to magnetic fields and oriented in at least three different orientations; a spin-state-altering subsystem configured and adapted to emit spin-state-altering energy within the sensory crystalline material in pulses of varying durations in a manner to generate Rabi oscillations of the defects, the amplitude of the energy emitted within the sensory crystalline material being different for each one of the at least three orientations; an interrogation subsystem configured and adapted to emit interrogation energy within the sensory crystalline material to generate a detectable intensity variation with the sensory crystalline material, the detectable intensity variation varying as a function of the spin-state of the defects, and a detector configured and adapted to measure the intensity of photons; and a computer configured and adapted to using the detection of the Rabi frequencies, generate association data in which the spin-state-altering energy values are associated with corresponding ones of the at least three defect orientations; using the association data, calculate the orientation of the magnetic field relative to the orientation of the sensory crystalline substrate; and generate a signal indicative of the orientation of the magnetic field. a sensory crystalline material substrate having defects sensitive to magnetic fields and oriented in at least three different orientations; a spin-state-altering subsystem configured and adapted to emit spin-state-altering energy within the sensory crystalline material in pulses of varying durations in a manner to generate Rabi oscillations of the defects, the amplitude of the energy emitted within the sensory crystalline material being different for each one of the at least three orientations; an interrogation subsystem configured and adapted to emit interrogation energy within the sensory crystalline material to generate a detectable intensity variation with the sensory crystalline material, the detectable intensity variation varying as a function of the spin-state of the defects, and a detector configured and adapted to measure the intensity of photons; and a computer configured and adapted to using the detection of the Rabi frequencies, generate association data in which the spin-state-altering energy values are associated with corresponding ones of the at least three defect orientations; using the association data, calculate the orientation of the magnetic field relative to the orientation of the sensory crystalline substrate; and generate a signal indicative of the orientation of the magnetic field. using the detection of the Rabi frequencies, generate association data in which the spin-state-altering energy values are associated with corresponding ones of the at least three defect orientations; using the association data, calculate the orientation of the magnetic field relative to the orientation of the sensory crystalline substrate; and generate a signal indicative of the orientation of the magnetic field.
An acoustic panel assembly for dampening noise in a rotating machine , the rotating machine comprising a rotatable shaft defining an axis of rotation (A), the acoustic panel assembly comprising: an annular casing disposed about at least a portion of the rotatable shaft ; a hook extending radially inward and axially from said casing ; and an acoustic panel comprising: a radially inner skin ; a radially outer skin ; and an acoustic treatment member comprising a plurality of walls extending between the radially inner skin and the radially outer skin thereby defining a plurality of radially oriented cells , a portion of the radially oriented cells adjacent a first axial edge of said acoustic panel being shaped to form a lip , wherein said acoustic panel is positioned so that said lip is axially and radially retained by said hook to thereby support the first axial edge of said acoustic panel from said casing ; characterized in that said portion of the radially oriented cells adjacent a first axial edge of said acoustic panel are filled with a reinforcement material and shaped to form the lip thereby having sufficient strength to support said acoustic panel along the first axial edge ; and in that the lip defines a radially inward facing mating surface , and wherein at least a portion of said mating surface is covered with a protective member , the protective member disposed between the lip and the hook . an annular casing disposed about at least a portion of the rotatable shaft ; a hook extending radially inward and axially from said casing ; and an acoustic panel comprising: a radially inner skin ; a radially outer skin ; and an acoustic treatment member comprising a plurality of walls extending between the radially inner skin and the radially outer skin thereby defining a plurality of radially oriented cells , a portion of the radially oriented cells adjacent a first axial edge of said acoustic panel being shaped to form a lip , wherein said acoustic panel is positioned so that said lip is axially and radially retained by said hook to thereby support the first axial edge of said a radially inner skin ; a radially outer skin ; and an acoustic treatment member comprising a plurality of walls extending between the radially inner skin and the radially outer skin thereby defining a plurality of radially oriented cells , a portion of the radially oriented cells adjacent a first axial edge of said acoustic panel being shaped to form a lip , wherein said acoustic panel is positioned so that said lip is axially and radially retained by said hook to thereby support the first axial edge of said acoustic panel from said casing ; characterized in that said portion of the radially oriented cells adjacent a first axial edge of said acoustic panel are filled with a reinforcement material and shaped to form the lip thereby having sufficient strength to support said acoustic panel along the first axial edge ; and in that the lip defines a radially inward facing mating surface , and wherein at least a portion of said mating surface is covered with a protective member , the protective member disposed between the lip and the hook .
Cutting station for automatically cutting to length of cable elements - with a stationary magazine , which extends in a longitudinal direction and a transverse direction and has a plurality of holders arranged next to each other, wherein a respective holder is formed to hold a respective cable element and extends in the longitudinal direction , and the cable elements , during operation, are held side by side by the holders in a magazine level (M), as well as - with a processing head , wherein the processing head is arranged above the magazine level (M), extends in the longitudinal direction and is displaceable in the transverse direction relative to the stationary magazine and is formed to process a respective cable element currently selected from the magazine , namely for gripping a respective selected cable element , pulling a respective selected cable element in the longitudinal direction and cutting to length of a respective selected cable element , wherein - each holder has two fixing elements spaced apart from one another in the longitudinal direction for holding the cable element . - with a stationary magazine , which extends in a longitudinal direction and a transverse direction and has a plurality of holders arranged next to each other, wherein a respective holder is formed to hold a respective cable element and extends in the longitudinal direction , and the cable elements , during operation, are held side by side by the holders in a magazine level (M), as well as - with a processing head , wherein - each holder has two fixing elements spaced apart from one another in the longitudinal direction for holding the cable element .
Processing machine for processing a substrate , comprising at least one shaping unit , the at least one shaping unit comprising at least one forme cylinder and at least one impression cylinder , a processing point for processing a substrate being located between the at least one forme cylinder and the at least one impression cylinder , the processing machine comprising at least one control unit for correcting a processing length (BL) which controls in an open loop and/or a closed loop a speed (v1; v2; ω1; w2) of the at least one forme cylinder and/or of the at least one impression cylinder , the speed (v1; ω1) of the at least one forme cylinder and the speed (v2; ω2) of the at least one impression cylinder having a speed ratio (v1/v2; ω1/ω2) with respect to one another, and the speed ratio (v1/v2; ω1/ω2) being changeable and/or changed at the processing point by means of the control unit as a function of the processing length (BL) of a substrate , characterized in that the speed ratio (v1/v2; ω1/ω2) for correcting the processing length (BL) differs at least once within a full cylinder revolution.
Micromechanical mechanism for an horological movement , the mechanism including a micromechanical device having a specific function, the device including a mobile element needing to be moved mechanically to trigger its operation, the mechanism comprising a system for actuating the device, the actuation system including a mobile striker configured to go from a release position to a percussion position in which it transmits to the mobile element a momentum necessary for the release of the micromechanical device, the actuation system further including a magnet configured to attract the mobile striker in a percussion position , the mobile element being in contact with the magnet in its rest position .
Process for producing a ceramic casting core for the manufacture of a hollow part with a complex cavity by lost-wax casting, such as a rotor or stator for a gas turbine, an aircraft engine, a reactor, a combustion chamber or the like, said core being an image of the complex cavity of the hollow part to be produced, characterized in that one manufactures said core by machining a fired ceramic material block , said machining being performed by mechanical material removal by means of a cutting tool, in that the machining operation comprises at least a first machining step to realize a first machined surface in said material block , and a second machining step to realize a second machined surface in said material block , substantially opposite to said first machined surface , and in that , prior to said second machining step, one applies on the whole or on a part of said first machined surface a reinforcement layer made of a stiffening solution to protect said material block from breaking during the second machining step and one waits for the solidification of said reinforcement layer before carrying out the second machining step.
A wiring component comprising: an electrically conductive member having an extension length of 450 mm or more; and a covering member covering the electrically conductive member, the covering member containing a polyphenylene ether resin composition, and having a secondary shrinkage A (%), determined as described in the EXAMPLES section, in an extension length direction of the covering member after being subjected to thermal aging at 130 °C for 24 hours satisfying the following Expression : A < 12.5 × e − 0.92 t (in the Expression , e represents the base of natural logarithm, and t represents a thickness (in mm)). an electrically conductive member having an extension length of 450 mm or more; and a covering member covering the electrically conductive member, the covering member containing a polyphenylene ether resin composition, and having a secondary shrinkage A (%), determined as described in the EXAMPLES section, in an extension length direction of the covering member after being subjected to thermal aging at 130 °C for 24 hours satisfying the following Expression : A < 12.5 × e − 0.92 t (in the Expression , e represents the base of natural logarithm, and t represents a thickness (in mm)).
A method comprising: positioning a plurality of data recording devices at a subsurface location in a wellbore, wherein when a well fluid flows through the wellbore past the subsurface location to a surface, each data recording device configured to receive and store data describing subsurface wellbore conditions at or near the subsurface location; storing at least a portion of the data describing the subsurface wellbore conditions on each data recording device; and releasing , from the subsurface location, each data recording device storing at least the portion of the data in a flow of the well fluid, wherein the well fluid flows each data recording device to the surface, characterized in that each data recording device is encapsulated in a bead before positioning the plurality of data recording devices at the subsurface location, wherein each data recording device in the bead comprises two magnetic plates positioned within the bead, wherein the data recording device is position between the two magnetic plates at substantially a center of the bead, and wherein the bead is filled with bead filler material and the bead filler material is encapsulated with a bead shell . positioning a plurality of data recording devices at a subsurface location in a wellbore, wherein when a well fluid flows through the wellbore past the subsurface location to a surface, each data recording device configured to receive and store data describing subsurface wellbore conditions at or near the subsurface location; storing at least a portion of the data describing the subsurface wellbore conditions on each data recording device; and releasing , from the subsurface location, each data recording device storing at least the portion of the data in a flow of the well fluid, wherein the well fluid flows each data recording device to the surface, characterized in that each data recording device is encapsulated in a bead before positioning the plurality of data recording devices at the subsurface location, wherein each data recording device in the bead comprises two magnetic plates positioned within the bead, wherein the data recording device is position between the two magnetic plates at substantially a center of the bead, and wherein the bead is filled with bead filler material and the bead filler material is encapsulated with a bead shell .
Replaceable attachment for an ultrasonic probe , comprising a) an annular mounting region for mounting the attachment on the ultrasonic probe ; b) a flexible membrane arranged on the mounting region ; wherein a first gel-like contact medium is applied to an inside facing contact surface of the membrane , characterized in that , when the attachment is attached to the ultrasonic probe , the contact surface contacts an end face of the ultrasonic probe ; before the attachment is attached, the first contact medium is distributed on the contact surface in such a way that, in an array region of the contact surface, an amount of the first contact medium per unit area is at least twice as large as in a remaining region of the contact surface, wherein a positioning and extent of the array region is adapted to the positioning and extent of a piezoelectric array of the ultrasonic probe , and an area of the array region is at least 60% and at most 175% of an area of the piezoelectric array. a) an annular mounting region for mounting the attachment on the ultrasonic probe ; b) a flexible membrane arranged on the mounting region ; wherein a first gel-like contact medium is applied to an inside facing contact surface of the membrane , characterized in that , when the attachment is attached to the ultrasonic probe , the contact surface contacts an end face of the ultrasonic probe ; before the attachment is attached, the first contact medium is distributed on the contact surface in such a way that, in an array region of the contact surface, an amount of the first contact medium per unit area is at least twice as large as in a remaining region of the contact surface, wherein a positioning and extent of the array region is adapted to the positioning and extent of a piezoelectric array of the ultrasonic probe , and an area of the array region is at least 60% and at most 175% of an area of the piezoelectric array.
Method for reconstructing an image obtained from kVp switched imaging of a body, comprising: - acquiring a plurality of images at a first kVp defining a first image scan and a plurality of images at a second kVp defining a second image scan, wherein the plurality of images at the first kVp are acquired interleaved with the plurality of images of the second image scan; - reconstructing an image from the first and second image scan, comprising: - determining at least one gradient location defining an edge between areas with lower and higher attenuation with respect to each other for at least one image in the first image scan and one image in the second image scan; - determining divergent gradient locations for which the gradient locations do not coincide spatially in respect of a same part of the body for said at least one image in the first and second image scans; - tagging each divergent gradient location as an undersampling artifact; and - generating the reconstructed image from the at least two images in the first and second image scans by correcting for each tagged undersampling artifact. - acquiring a plurality of images at a first kVp defining a first image scan and a plurality of images at a second kVp defining a second image scan, wherein the plurality of images at the first kVp are acquired interleaved with the plurality of images of the second image scan; - reconstructing an image from the first and second image scan, comprising: - determining at least one gradient location defining an edge between areas with lower and higher attenuation with respect to each other for at least one image in the first image scan and one image in the second image scan; - determining divergent gradient locations for which the gradient locations do not coincide spatially in respect of a same part of the body for said at least one image in the first and second image scans; - tagging each divergent gradient location as an undersampling artifact; and - generating the reconstructed image from the at least two images in the first and second image scans by correcting for each tagged undersampling artifact. - determining at least one gradient location defining an edge between areas with lower and higher attenuation with respect to each other for at least one image in the first image scan and one image in the second image scan; - determining divergent gradient locations for which the gradient locations do not coincide spatially in respect of a same part of the body for said at least one image in the first and second image scans; - tagging each divergent gradient location as an undersampling artifact; and - generating the reconstructed image from the at least two images in the first and second image scans by correcting for each tagged undersampling artifact.
A system for control of a hydrogen refueling station , the system comprising the hydrogen refueling station , the hydrogen refueling station comprises components including a controller , a cooling system and a compressor fluidly connected to a supply storage and a dispenser , the supply storage comprises a plurality of vessels (5a, 5b, 5c,..., 5n), wherein the controller facilitates control of the position of the valves in the fluid connections between supply storage and dispenser and thereby control of the flow of hydrogen gas from the supply storage to a vehicle tank, when a vehicle is connected to the dispenser , wherein the control of the hydrogen refueling station is optimized according to a high frequency tank profile in a time period between time A and time B, the high frequency tank profile includes selecting a first of the plurality of vessels (5a, 5b, 5c,..., 5n) as supply to the compressor during at least part of the refueling of the vehicle tank, the selection is based on pressure of hydrogen gas in one or more vessels (5a, 5b, 5c,..., 5n) of the supply storage , wherein the control of the hydrogen refueling station is optimized according to a low frequency tank profile in a time period between time C and time D, the low frequency tank profile includes preparing one or more hydrogen refueling station components to enable a plurality of vehicle tank refuelings in the subsequent time period between time A and time B wherein the controller is configured to determine at least one of time A, time B, time C and time D based on information of past refuelings. wherein the controller facilitates control of the position of the valves in the fluid connections between supply storage and dispenser and thereby control of the flow of hydrogen gas from the supply storage to a vehicle tank, when a vehicle is connected to the dispenser , wherein the control of the hydrogen refueling station is optimized according to a high frequency tank profile in a time period between time A and time B, the high frequency tank profile includes selecting a first of the plurality of vessels (5a, 5b, 5c,..., 5n) as supply to the compressor during at least part of the refueling of the vehicle tank, the selection is based on pressure of hydrogen gas in one or more vessels (5a, 5b, 5c,..., 5n) of the supply storage , wherein the control of the hydrogen refueling station is optimized according to a low frequency tank profile in a time period between time C and time D, the low frequency tank profile includes preparing one or more hydrogen refueling station components to enable a plurality of vehicle tank refuelings in the subsequent time period between time A and time B wherein the controller is configured to determine at least one of time A, time B, time C and time D based on information of past refuelings.
An elevator brake control device , comprising: a relay switch that is associated with a safety chain configured to monitor at least one condition of a selected elevator system component, the relay switch selectively being closed to allow power supply to an electrically activated elevator brake component responsive to the monitored condition having a first status in which all elevator doors are closed, the relay switch being selectively opened to prevent power supply to the brake component responsive to the monitored condition having a second, different status in which at least one of the elevator doors is open; a solid state switch in series with the relay switch between the relay switch and the brake component ; a driver that selectively controls the solid state switch to selectively allow power to be supplied to the brake component only if the relay switch is closed and the monitored condition has the first status. a relay switch that is associated with a safety chain configured to monitor at least one condition of a selected elevator system component, the relay switch selectively being closed to allow power supply to an electrically activated elevator brake component responsive to the monitored condition having a first status in which all elevator doors are closed, the relay switch being selectively opened to prevent power supply to the brake component responsive to the monitored condition having a second, different status in which at least one of the elevator doors is open; a solid state switch in series with the relay switch between the relay switch and the brake component ; a driver that selectively controls the solid state switch to selectively allow power to be supplied to the brake component only if the relay switch is closed and the monitored condition has the first status.