mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of generating an artefact estimation image representing the predicted effect of one or more cone-beam artefacts in a computed tomography image , the computer-implemented method comprising: obtaining a computed tomography image of an individual; characterized in that the method further comprises: identifying the position of one or more gradients of the computed tomography image, wherein a gradient is a change in the magnitude of pixel values of the computed tomography image, over a predetermined distance in a direction parallel to a first axis of the computed tomography image, greater than a predetermined value, wherein the first axis represents a rotation axis of the computed tomography system that generated the computed tomography image; identifying , for each gradient, the relative position of the gradient with respect to an artefact estimation image; obtaining a look-up table that correlates a relative position of a gradient with respect to the artefact estimation image with a value that represents a change in intensity value resulting from a cone-beam artefact caused by the gradient; and generating an artefact estimation image that represents the change of intensity caused by one or more cone-beam artefacts in the computed tomography image, by processing the identified positions of the one or more gradients of the computed tomography image and the look-up table. identifying the position of one or more gradients of the computed tomography image, wherein a gradient is a change in the magnitude of pixel values of the computed tomography image, over a predetermined distance in a direction parallel to a first axis of the computed tomography image, greater than a predetermined value, wherein the first axis represents a rotation axis of the computed tomography system that generated the computed tomography image; identifying , for each gradient, the relative position of the gradient with respect to an artefact estimation image; obtaining a look-up table that correlates a relative position of a gradient with respect to the artefact estimation image with a value that represents a change in intensity value resulting from a cone-beam artefact caused by the gradient; and generating an artefact estimation image that represents the change of intensity caused by one or more cone-beam artefacts in the computed tomography image, by processing the identified positions of the one or more gradients of the computed tomography image and the look-up table.
A microparticle composition comprising saflufenacil, wherein saflufenacil is present in the form of microparticles, which comprise solid saflufenacil, which is surrounded or embedded by an aminoplast polymer, which is a polycondensation product of one or more amino compounds and one or more aldehydes, and further comprising at least one lignin based sulfonic acid A, wherein said lignosulfonic acid A has an average molar weight MW of at least 10,000 Da and a degree of sulfonation from 1.0 to 2.5 mol per kilogram of said lignosulfonic acid A, and wherein the aminoplast polymer is selected from the groups consisting of melamine formaldehyde resins and urea formaldehyde resins and mixtures thereof.
1. A topical UV filter composition comprising an active ingredient of Avobenzone-defect rich ZnO nanocrystals complex (Av-DZnONCs), wherein avobenzone and defect rich ZnO nanocrystals interact to form a complex to stabilize avobenzone against photodegradation.
A method performed by a wireless transmit/receive unit, WTRU , the method comprising: the WTRU performing a service request procedure for circuit switched fallback, CSFB; the WTRU determining that a bearer is not established; performing a detach procedure and entering an EMM-DEREGISTERED state without initiating an attach procedure in a circuit switched domain; the WTRU, in the EMM-DEREGISTERED state, reselecting to a circuit switched domain; and continuing with a circuit switched service. the WTRU performing a service request procedure for circuit switched fallback, CSFB; the WTRU determining that a bearer is not established; performing a detach procedure and entering an EMM-DEREGISTERED state without initiating an attach procedure in a circuit switched domain; the WTRU, in the EMM-DEREGISTERED state, reselecting to a circuit switched domain; and continuing with a circuit switched service.
Wind farm having at least two wind energy installations , which has a generator with a converter for production of electrical power and has a controller , having a farm master which is designed for real-power and wattless-component monitoring, and transmits a control signal for the wattless component via a communication network to the wind energy installations , and having a connection grid system which connects the wind energy installations to one another in order to feed the electrical power produced into a grid system via a junction point , wherein at least one of the wind energy installations has a power-factor regulator to whose input a wattless-component nominal value is applied and which acts on the converter in order to set a wattless component which corresponds to the wattless-component nominal value, wherein the wind energy installation has an additional regulator to whose input a signal for a nominal voltage is applied by the farm master , and which emits control signals for the converter in order to vary the emitted wattless component, in order to regulate the emitted voltage from the wind energy installations at the nominal voltage, wherein a logic unit is formed, which connects the power-factor regulator and the additional regulator to one another such that a common control signal is formed for the converter .
An antenna assembly comprising: a dielectric substrate ; a first patch having a first slot (S1, S1b, S1c) formed at an inner region of a first conductive pattern disposed on the dielectric substrate and configured to radiate a signal in a first frequency band through the first conductive pattern; a second patch having a second slot (S2) formed at an inner region of a second conductive pattern disposed at an inner region of the first slot (S1, S1b, S1c) and configured to radiate a signal in a second frequency band through the second conductive pattern; a first feeding line disposed at a first region of the first slot (S1, S1b, S1c) between an inside of the first patch and an outside of the second patch ; a second feeding line disposed at a second region of the first slot (S1, S1b, S1c) between the inside of the first patch and the outside of the second patch , the second region corresponding to a position where the second feeding line is orthogonal to the first feeding line ; and a connection line configured to connect the first path and the second patch between the first feeding line and the second feeding line ; characterized in that the first slot (S1, S1b, S1c) between an inside of the first patch and an outside of the second patch is configured to radiate a signal in a third frequency band, and wherein the second frequency band is a band higher than the first frequency band and the third frequency band is a band higher than the second frequency band. a dielectric substrate ; a first patch having a first slot (S1, S1b, S1c) formed at an inner region of a first conductive pattern disposed on the dielectric substrate and configured to radiate a signal in a first frequency band through the first conductive pattern; a second patch having a second slot (S2) formed at an inner region of a second conductive pattern disposed at an inner region of the first slot (S1, S1b, S1c) and configured to radiate a signal in a second frequency band through the second conductive pattern; a first feeding line disposed at a first region of the first slot (S1, S1b, S1c) between an inside of the first patch and an outside of the second patch ; a second feeding line disposed at a second region of the first slot (S1, S1b, S1c) between the inside of the first patch and the outside of the second patch , the second region corresponding to a position where the second feeding line is orthogonal to the first feeding line ; and a connection line configured to connect the first path and the second patch between the first feeding line and the second feeding line ; characterized in that the first slot (S1, S1b, S1c) between an inside of the first patch and an outside of the second patch is configured to radiate a signal in a third frequency band, and wherein the second frequency band is a band higher than the first frequency band and the third frequency band is a band higher than the second frequency band.
A compound of Formula I wherein: R 1 is -N(R 17 )(R 18 ); R 17 is hydrogen; R 18 is a pyridinyl substituted with -X-POLY; X is selected from a covalent bond and -O-; and POLY is -(CH 2 CH 2 O) n -R, where n is 1 to 30 and R is selected from hydrogen, C 1-6 alkyl, haloalkyl, and carboxyl; or pharmaceutically acceptable salts thereof. R 1 is -N(R 17 )(R 18 ); R 17 is hydrogen; R 18 is a pyridinyl substituted with -X-POLY; X is selected from a covalent bond and -O-; and POLY is -(CH 2 CH 2 O) n -R, where n is 1 to 30 and R is selected from hydrogen, C 1-6 alkyl, haloalkyl, and carboxyl; or
A device for enhancing efficiency of an air mask wearable by a user to cover the mouth and nose of the user, the device comprising: an elongated chamber fluidly couplable at a proximal end thereof to an air opening of the mask , a filter element formed of flexible material that is wrapped around a sidewall of the chamber either internally or externally for filtering air flowing through the chamber in either direction, a one-way valve mounted in association with the opening, an air blower configured to continuously supply air for inhalation or to discharge exhaled air, characterized in that : an expandable member is fluidly coupled to the chamber: the one-way valve is configured for allowing treated air inhaled by the user to pass from the chamber to the mask or for allowing air exhaled by the user to pass from the mask to the chamber, the expandable member is operably coupled to the one-way valve for directing air through the filter during inhalation or exhalation; whereby if the opening is configured to be an air inlet, then during inhalation air is constrained to flow into the chamber and inflate the expandable member with treated air ready for inhalation prior to flowing out through the opening into the user's lungs; and if the opening is an air outlet, then during exhalation air is constrained to flow from the user's lungs into the chamber and inflate the expandable member with exhaled air prior to being discharged as treated air into the environment. an elongated chamber fluidly couplable at a proximal end thereof to an air opening of the mask , a filter element formed of flexible material that is wrapped around a sidewall of the chamber either internally or externally for filtering air flowing through the chamber in either direction, a one-way valve mounted in association with the opening, an air blower configured to continuously supply air for inhalation or to discharge exhaled air, the one-way valve is configured for allowing treated air inhaled by the user to pass from the chamber to the mask or for allowing air exhaled by the user to pass from the mask to the chamber, the expandable member is operably coupled to the one-way valve for directing air through the filter during inhalation or exhalation; whereby if the opening is configured to be an air inlet, then during inhalation air is constrained to flow into the chamber and inflate the expandable member with treated air ready for inhalation prior to flowing out through the opening into the user's lungs; and if the opening is an air outlet, then during exhalation air is constrained to flow from the user's lungs into the chamber and inflate the expandable member with exhaled air prior to being discharged as treated air into the environment.
A roll-to-roll plasma surface cleaning treatment system, comprising: an upper housing containing a first plasma generating device and a first transfer roller that faces a nozzle from which a plasma beam generated by the first plasma generating device is discharged and that winds and transfers a flexible substrate, the upper housing comprising a gas inlet , an entrance through which the flexible substrate is introduced, and an outlet through which the flexible substrate is discharged; and a lower housing connected to the entrance of the upper housing and containing a second plasma generating device and a second transfer roller that faces a nozzle from which a plasma beam generated by the second plasma generating device is discharged and that winds and transfers the flexible substrate, the lower housing comprising a gas outlet , and an inlet through which the flexible substrate is introduced, characterized in that the system further comprises a source of a low-temperature refrigerant gas and that the system is configured to maintain the upper housing at a low-temperature atmosphere by introducing the low-temperature refrigerant gas through the gas inlet . an upper housing containing a first plasma generating device and a first transfer roller that faces a nozzle from which a plasma beam generated by the first plasma generating device is discharged and that winds and transfers a flexible substrate, the upper housing comprising a gas inlet , an entrance through which the flexible substrate is introduced, and an outlet through which the flexible substrate is discharged; and a lower housing connected to the entrance of the upper housing and containing a second plasma generating device and a second transfer roller that faces a nozzle from which a plasma beam generated by the second plasma generating device is discharged and that winds and transfers the flexible substrate, the lower housing comprising a gas outlet , and an inlet through which the flexible substrate is introduced, characterized in that the system further comprises a source of a low-temperature refrigerant gas and that the system is configured to maintain the upper housing at a low-temperature atmosphere by introducing the low-temperature refrigerant gas through the gas inlet .
A method for passivating crystal defects of a nonlinear optical crystal, comprising the steps of: providing a nonlinear optical (NLO) crystal, wherein the NLO crystal is an oxide-type non-linear crystal or the NLO crystal comprises at least one of Beta-Barium Borate (BBO), Lithium Triborate (LBO), Lithium Tetraborate (LTB), Cesium Lithium Borate (CLBO), and Cesium Borate (CBO); maintaining a temperature of the NLO crystal between 300° and 350°C; and exposing the NLO crystal to passivating gas having a concentration of at least one of hydrogen, deuterium, ammonia or methane at a selected concentration sufficient to cure at least one crystal defect caused by dangling or broken bonds within the NLO crystal, wherein the hydrogen concentration of the passivating gas consists of a concentration in excess of the hydrogen concentration naturally present in air. providing a nonlinear optical (NLO) crystal, wherein the NLO crystal is an oxide-type non-linear crystal or the NLO crystal comprises at least one of Beta-Barium Borate (BBO), Lithium Triborate (LBO), Lithium Tetraborate (LTB), Cesium Lithium Borate (CLBO), and Cesium Borate (CBO); maintaining a temperature of the NLO crystal between 300° and 350°C; and exposing the NLO crystal to passivating gas having a concentration of at least one of hydrogen, deuterium, ammonia or methane at a selected concentration sufficient to cure at least one crystal defect caused by dangling or broken bonds within the NLO crystal, wherein the hydrogen concentration of the passivating gas consists of a concentration in excess of the hydrogen concentration naturally present in air.
A method for removing a wrapping , such as plastic film, from a roll of material, said roll having a cylindrical body, a first roll body end portion with a first end gable , a second roll body end portion with a second end gable , the method comprising the steps of: - moving a cutting means into abutment against the wrapping at said first roll body end portion such that the wrapping is punctured, - rotating the roll about its center axis (A) over a rotational angle (φ) from 270 to 360 degrees, at the same time as the wrapping is cut by the cutting means at said first roll body end portion , the cutting means forming an end portion cutting angle (α) relative said first end gable of the first end portion , characterized by - moving the cutting means axially along the center axis (A) of the roll towards said second roll body end portion and at the same time rotating the roll about said center axis (A) such that the wrapping on an envelope surface of the roll is cut in a helical manner, wherein the wrapping on the envelope surface of the roll is cut with the cutting means forming an envelope surface cutting angle (β) relative said first end gable of said first end portion , wherein said envelope surface cutting angle (β) is larger than said end portion cutting angle (α); and - rotating the roll further about its center axis (A) over the rotational angle (φ) from 270 to 360 degrees, at the same time as the wrapping is cut by the cutting means at said second roll body end portion , the cutting means forming said end portion cutting angle (α), such that the wrapping is cut off the roll automatically and in one continuous piece. - moving a cutting means into abutment against the wrapping at said first roll body end portion such that the wrapping is punctured, - rotating the roll about its center axis (A) over a rotational angle (φ) from 270 to 360 degrees, at the same time as the wrapping is cut by the cutting means at said first roll body end portion , the cutting means forming an end portion cutting angle (α) relative said first end gable of the first end portion , characterized by - moving the cutting means axially along the center axis (A) of the roll towards said second roll body end portion and at the same time rotating the roll about said center axis (A) such that the wrapping on an envelope surface of the roll is cut in a helical manner, wherein the wrapping on the envelope surface of the roll is cut with the cutting means forming an envelope surface cutting angle (β) relative said first end gable of said first end portion , wherein said envelope surface cutting angle (β) is larger than said end portion cutting angle (α); and - rotating the roll further about its center axis (A) over the rotational angle (φ) from 270 to 360 degrees, at the same time as the wrapping is cut by the cutting means at said second roll body end portion , the cutting means forming said end portion cutting angle (α),
A mutant IGF2 binding domain comprising the amino acid sequence of residues 1511 to 1650 of human IGF2R as set forth in SEQ ID NO: 1, with 30 or fewer of said residues mutated, wherein residue P1597 of said amino acid sequence is substituted for H or K.
A ceiling conveyance vehicle that includes a traveling wheel configured to roll on a track (R) including a first track (R1) extending in a first direction (D1) and a second track (R2) extending in a second direction (D2) different from the first direction (D1), and a main body placed below the track (R) and coupled to the traveling wheel , the ceiling conveyance vehicle comprising: a direction changer configured to switch between a first state in which the traveling wheel rolls on the first track (R1) and a second state in which the traveling wheel rolls on the second track (R2), with an orientation of the main body with respect to the track maintained; an article holder capable of holding an article; a hoisting-and-lowering driver hoisting and lowering the article holder ; a lateral slider configured to slidingly move the hoisting-and-lowering driver in a horizontal, linear direction; and a first rotational driver configured to rotationally drive the lateral slider around a first vertical axis (AX1) with respect to the main body ; a second rotationally driver configured to rotationally drive the article holder or the hoisting-and-lowering driver around a second vertical axis (AX2) with respect to the lateral slider ; wherein the second rotationally driver is configured to rotate the article holder or the hoisting-and-lowering driver in a range of at least 180 degrees around the second vertical axis (AX2) on the basis of the linear direction. a direction changer configured to switch between a first state in which the traveling wheel rolls on the first track (R1) and a second state in which the traveling wheel rolls on the second track (R2), with an orientation of the main body with respect to the track maintained; an article holder capable of holding an article; a hoisting-and-lowering driver hoisting and lowering the article holder ; a lateral slider configured to slidingly move the hoisting-and-lowering driver in a horizontal, linear direction; and a first rotational driver configured to rotationally drive the lateral slider around a first vertical axis (AX1) with respect to the main body ; a second rotationally driver configured to rotationally drive the article holder or the hoisting-and-lowering driver around a second vertical axis (AX2) with respect to the lateral slider ; wherein the second rotationally driver is configured to rotate the article holder or the hoisting-and-lowering driver in a range of at least 180 degrees around the second vertical axis (AX2) on the basis of the linear direction.
A tyre sensor device comprising a connecting element for connecting the tyre sensor device to a vehicle tyre, and a tyre sensor device electronics assembly housed in the connecting element, characterized in that the tyre sensor device electronics assembly comprises a flexible printed circuit board being foldable and comprising at least two printed circuit board portions each having two surfaces, the at least two printed circuit board portions being joined by joining portions to ensure a flexural mechanical connection between the at least two circuit board portions , the at least two printed circuit board portions being suitable for the placement, on at least one surface thereof, of electronic components of the tyre sensor device, wherein said electronic components comprise at least one sensor for sensing at least one tyre parameter, said printed circuit board being folded so that the tyre sensor device electronics assembly can be inserted in the connecting element with the at least two printed circuit board portions being essentially planar.
A foldable small dining chair, comprising a front support frame and a rear support frame , wherein the front support frame and the rear support frame are arranged in a foldable manner; the front support frame is provided with a left sleeve member and a right sleeve member ; the front support frame is provided with a left armrest connecting rod and a right armrest connecting rod ; a top front end of the left armrest connecting rod is provided with a left armrest , and a top front end of the right armrest connecting rod is provided with a right armrest , wherein the left armrest and the right armrest are foldable; a rotatable seat is provided between the left sleeve member and the right sleeve member ; a dining tray being detachable and movable forwards and backwards is provided between the left armrest and the right armrest ; and a detachable backrest is provided between the left armrest connecting rod and the right armrest connecting rod .