mhurhangee/patent-ind-claim-en huggingface dataset:
A current injection (CI) test apparatus for injecting a predetermined amount of current through an electrical conductor comprising: a first transformer having a primary winding and a secondary winding , the secondary winding coupled to a pair of output terminals ; a variable transformer having a primary winding , a secondary winding and a control actuator , the primary winding configured to receive power from an alternating current power source, the secondary winding electrically coupled to the primary winding of the first transformer , wherein power on the secondary winding of the first transformer is selectively controlled by the actuator of the variable transformer ; and a pair of probe leads each having a proximal end and a distal end, the proximal ends being configured for electrical connection with one of the pair of output terminals , and the distal ends being configured to inject the predetermined amount of current through the electrical conductor, characterized in that the current injection (CI) test apparatus further comprises: a housing having an interior; wherein the variable transformer is mounted in the interior; wherein the first transformer is mounted in the housing interior, and wherein a short circuit condition is defined across the secondary winding of the first transformer while the predetermined amount of current is injected through the electrical conductor. a first transformer having a primary winding and a secondary winding , the secondary winding coupled to a pair of output terminals ; a variable transformer having a primary winding , a secondary winding and a control actuator , the primary winding configured to receive power from an alternating current power source, the secondary winding electrically coupled to the primary winding of the first transformer , wherein power on the secondary winding of the first transformer is selectively controlled by the actuator of the variable transformer ; and a pair of probe leads each having a proximal end and a distal end, the proximal ends being configured for electrical connection with one of the pair of output terminals , and the distal ends being configured to inject the predetermined amount of current through the electrical conductor, characterized in that the current injection (CI) test apparatus further comprises: a housing having an interior; wherein the variable transformer is mounted in the interior; wherein the first transformer is mounted in the housing interior, and wherein a short circuit condition is defined across the secondary winding of the first transformer while the predetermined amount of current is injected through the electrical conductor. a housing having an interior; wherein the variable transformer is mounted in the interior; wherein the first transformer is mounted in the housing interior, and wherein a short circuit condition is defined across the secondary winding of the first transformer while the predetermined amount of current is injected through the electrical conductor.
A compound represented by formula (IIA) or an N -oxide thereof, or a pharmaceutically acceptable salt thereof: wherein R 1 represents halogen; or R 1 represents heteroaryl, which group may be optionally substituted by one or more substituents; R 2 represents hydrogen or halogen; R 5 represents difluoromethoxy or -OR a ; R a represents C 1-6 alkyl, aryl(C 1-6 )alkyl or heteroaryl(C 1-6 )alkyl which groups may be optionally substituted by C 1-6 alkoxy and oxo; R 6 , R 7 and R 8 independently represent hydrogen, halogen, trifluoromethyl, C 1-6 alkyl or C 1-6 alkoxy; and R f and R g independently represent hydrogen or C 1-6 alkyl. R 1 represents halogen; or R 1 represents heteroaryl, which group may be optionally substituted by one or more substituents; R 2 represents hydrogen or halogen; R 5 represents difluoromethoxy or -OR a ; R a represents C 1-6 alkyl, aryl(C 1-6 )alkyl or heteroaryl(C 1-6 )alkyl which groups may be optionally substituted by C 1-6 alkoxy and oxo; R 6 , R 7 and R 8 independently represent hydrogen, halogen, trifluoromethyl, C 1-6 alkyl or C 1-6 alkoxy; and R f and R g independently represent hydrogen or C 1-6 alkyl.
An oxygen scavenging composition for containers comprising: at least one polyester component, a transition metal catalyst, an oxygen scavenger, and a vegetable oil comprising at least one molecule having a double allylic structure, wherein the at least one polyester component comprises at least one acid unit and at least one diol unit, the concentration of the double allylic structures of the vegetable oil in the composition is greater than 5.0 meq/kg of all of the polyester components, the oxygen scavenger is a polyamide that is present in the composition in an amount in the range of between 0.05% by weight and 0.9% by weight, and the vegetable oil is present in the composition at a level greater than 0.3% by weight relative to the total weight of the polyester components, the transition metal catalyst and the vegetable oil. at least one polyester component, a transition metal catalyst, an oxygen scavenger, and a vegetable oil comprising at least one molecule having a double allylic structure, wherein the at least one polyester component comprises at least one acid unit and at least one diol unit, the concentration of the double allylic structures of the vegetable oil in the composition is greater than 5.0 meq/kg of all of the polyester components, the oxygen scavenger is a polyamide that is present in the composition in an amount in the range of between 0.05% by weight and 0.9% by weight, and the vegetable oil is present in the composition at a level greater than 0.3% by weight relative to the total weight of the polyester components, the transition metal catalyst and the vegetable oil.
A method for producing a three-dimensional object by layer-wise applying and selectively solidifying a building material in powder form , comprising the steps of: applying a layer of the building material in powder form by means of an application device moving across a working plane , selectively solidifying the applied powder layer at positions that correspond to a cross-section of the object to be produced by introducing energy by means of an irradiation device which emits a radiation suited to solidify the building material and repeating the steps of applying and selectively solidifying until the object is completed, wherein, for at least one layer, preferably a plurality of layers and particularly preferred all layers, the application step is carried out such that the application device moves at least twice across an area to be coated without energy being introduced by the irradiation device in-between and wherein, for at least one layer, preferably a plurality of layers and particularly preferred all layers, the step of selectively solidifying is carried out such that the irradiation device moves at least twice across an area to be irradiated without new building material being applied in-between. applying a layer of the building material in powder form by means of an application device moving across a working plane , selectively solidifying the applied powder layer at positions that correspond to a cross-section of the object to be produced by introducing energy by means of an irradiation device which emits a radiation suited to solidify the building material and repeating the steps of applying and selectively solidifying until the object is completed, wherein, for at least one layer, preferably a plurality of layers and particularly preferred all layers, the application step is carried out such that the application device moves at least twice across an area to be coated without energy being introduced by the irradiation device in-between and wherein, for at least one layer, preferably a plurality of layers and particularly preferred all layers, the step of selectively solidifying is carried out such that the irradiation device moves at least twice across an area to be irradiated without new building material being applied in-between.
A head assembly for a power operated dermatome , the head assembly comprising: a frame body , a blade housing assembly , an annular rotary knife blade supported for rotation about an axis of rotation (R) by the blade housing assembly , the rotary knife blade including an inner wall defining an interior region of the rotary knife blade and having a cutting edge at one end of the rotary knife blade defining a cutting plane (CP) orthogonal to the axis of rotation (R) of the rotary knife blade , and a depth gauge assembly including a depth gauge support and a depth gauge including a depth gauge shaft and a depth gauge plate extending radially outwardly from the depth gauge shaft , the depth gauge shaft supported by the depth gauge support for axial movement of the depth gauge along the axis of rotation (R) of the rotary knife blade , the depth gauge shaft being concentric with the axis of rotation (R) of the rotary knife blade, the depth gauge plate extending into the interior region of the rotary knife blade and the depth gauge support attached to and extending from the frame body , wherein the depth gauge plate is disk-shaped, characterized in that the depth gauge plate includes an annular rim having a planar lower surface . a frame body , a blade housing assembly , an annular rotary knife blade supported for rotation about an axis of rotation (R) by the blade housing assembly , the rotary knife blade including an inner wall defining an interior region of the rotary knife blade and having a cutting edge at one end of the rotary knife blade defining a cutting plane (CP) orthogonal to the axis of rotation (R) of the rotary knife blade , and a depth gauge assembly including a depth gauge support and a depth gauge including a depth gauge shaft and a depth gauge plate extending radially outwardly from the depth gauge shaft , the depth gauge shaft supported by the depth gauge support for axial movement of the depth gauge along the axis of rotation (R) of the rotary knife blade , the depth gauge shaft being concentric with the axis of rotation (R) of the rotary knife blade, the depth gauge plate extending into the interior region of the rotary knife blade and the depth gauge support attached to and extending from the frame body , wherein the depth gauge plate is disk-shaped, characterized in that the depth gauge plate includes an annular rim having a planar lower surface .
A logging tool for determining properties of a fluid surrounding the tool arranged downhole in a casing comprising a wall and having a longitudinal extension, the logging tool having a longitudinal, cylindrical shape with a longitudinal axis and, when seen in cross-section, a periphery , characterised in that the logging tool comprises: - a plurality of electrodes arranged spaced apart around the longitudinal axis in the periphery of the tool so that the fluid flows between the electrodes and the casing wall, and - a measuring means adapted to measure the capacitance of the fluid between two electrodes in all combinations giving n ∗ (n-1)/2 capacitance measurements for n electrodes, wherein the logging tool has a space between every two electrodes, which space is filled up with a non-conductive means. - a plurality of electrodes arranged spaced apart around the longitudinal axis in the periphery of the tool so that the fluid flows between the electrodes and the casing wall, and - a measuring means adapted to measure the capacitance of the fluid between two electrodes in all combinations giving n ∗ (n-1)/2 capacitance measurements for n electrodes, wherein the logging tool has a space between every two electrodes, which space is filled up with a non-conductive means.
A method of forming a semiconductor device , comprising in the following order: forming a trench in a substrate having a top surface ; forming a first dielectric liner over sidewalls of the trench ; forming a second dielectric liner over the first dielectric liner ; forming a polysilicon shield over the second dielectric liner ; removing a portion of the polysilicon shield ; removing the second liner on the sidewalls of the trench exposed by the removal of the portion of the polysilicon shield , at least a portion of the first liner remaining to protect top corners of the trench ; forming an insulator over the polysilicon shield contacting the first dielectric liner such that the first dielectric liner is located laterally between the insulator and the substrate ; removing the first dielectric liner between the insulator and the top surface providing an exposed sidewall of the substrate ; forming a gate dielectric layer over the exposed sidewall of the substrate ; and forming a gate electrode over the gate dielectric layer and said insulator . forming a trench in a substrate having a top surface ; forming a first dielectric liner over sidewalls of the trench ; forming a second dielectric liner over the first dielectric liner ; forming a polysilicon shield over the second dielectric liner ; removing a portion of the polysilicon shield ; removing the second liner on the sidewalls of the trench exposed by the removal of the portion of the polysilicon shield , at least a portion of the first liner remaining to protect top corners of the trench ; forming an insulator over the polysilicon shield contacting the first dielectric liner such that the first dielectric liner is located laterally between the insulator and the substrate ; removing the first dielectric liner between the insulator and the top surface providing an exposed sidewall of the substrate ; forming a gate dielectric layer over the exposed sidewall of the substrate ; and forming a gate electrode over the gate dielectric layer and said insulator .
A method comprising: receiving , from a first camera (108-1, 108-3) of a stationary vehicle , an image of a first calibration targe (118-1,118-3) within a first camera field of view (120-1,120-3) of the first camera; receiving , from a second camera (108-2,108-4) of the stationary vehicle, an image of a second calibration target (118-2, 118-4) within a second camera field of view (120-2,120-4) of the second camera, the second camera field of view being opposite the first camera field of view; determining , based on encoded data in the image of the first calibration target and encoded data in the image of the second calibration target, whether the first and second calibration targets are valid for calibrating an inertial measurement unit , IMU, of the stationary vehicle; responsive to determining that the first and second calibration targets are valid for calibrating the IMU, establishing , based on the image of the first calibration target and the image of the second calibration target, a vehicle coordinate system with respect to ground-truth conditions outside the vehicle; and outputting information to enable the stationary vehicle to compensate for IMU mounting errors in the vehicle by calibrating the IMU to align IMU data output from the IMU with the vehicle coordinate system. receiving , from a first camera (108-1, 108-3) of a stationary vehicle , an image of a first calibration targe (118-1,118-3) within a first camera field of view (120-1,120-3) of the first camera; receiving , from a second camera (108-2,108-4) of the stationary vehicle, an image of a second calibration target (118-2, 118-4) within a second camera field of view (120-2,120-4) of the second camera, the second camera field of view being opposite the first camera field of view; determining , based on encoded data in the image of the first calibration target and encoded data in the image of the second calibration target, whether the first and second calibration targets are valid for calibrating an inertial measurement unit , IMU, of the stationary vehicle; responsive to determining that the first and second calibration targets are valid for calibrating the IMU, establishing , based on the image of the first calibration target and the image of the second calibration target, a vehicle coordinate system with respect to ground-truth conditions outside the vehicle; and outputting information to enable the stationary vehicle to compensate for IMU mounting errors in the vehicle by calibrating the IMU to align IMU data output from the IMU with the vehicle coordinate system.
A method of prenatal diagnostics comprising the steps of: 1. enriching a blood sample obtained from a woman carrying a fetus for fetal cells, 2. contacting said sample with at least one fluorescent labelling agent, wherein said at least one fluorescent labelling agent is selected from each of the groups: i. fluorescent labelling agent directed against the nucleus, ii. fluorescent labelling agent directed against a maternal cell marker, and iii. fluorescent labelling agent directed against a fetal cell marker, 3. single cell sorting at least one fetal cell on a fluorescence activated cell sorter (FACS) from said enriched sample based on: a. positive selection of said fluorescent labelling agent directed against a fetal cell marker, b. positive selection of said fluorescent labelling agent directed against the nucleus, and c. negative selection of said fluorescent labelling agent directed against a maternal cell marker, 4. obtaining a genotype from said fetal cell(s), and 5. diagnosing the phenotype of the fetus. 1. enriching a blood sample obtained from a woman carrying a fetus for fetal cells, 2. contacting said sample with at least one fluorescent labelling agent, wherein said at least one fluorescent labelling agent is selected from each of the groups: i. fluorescent labelling agent directed against the nucleus, ii. fluorescent labelling agent directed against a maternal cell marker, and iii. fluorescent labelling agent directed against a fetal cell marker, i. fluorescent labelling agent directed against the nucleus, ii. fluorescent labelling agent directed against a maternal cell marker, and iii. fluorescent labelling agent directed against a fetal cell marker, 3. single cell sorting at least one fetal cell on a fluorescence activated cell sorter (FACS) from said enriched sample based on: a. positive selection of said fluorescent labelling agent directed against a fetal cell marker, b. positive selection of said fluorescent labelling agent directed against the nucleus, and c. negative selection of said fluorescent labelling agent directed against a maternal cell marker, a. positive selection of said fluorescent labelling agent directed against a fetal cell marker, b. positive selection of said fluorescent labelling agent directed against the nucleus, and c. negative selection of said fluorescent labelling agent directed against a maternal cell marker, 4. obtaining a genotype from said fetal cell(s), and 5. diagnosing the phenotype of the fetus.
A woven fabric for composite material applications, the woven fabric comprising tape-like warps (W11-W15. W21-W24) and tape-like wefts (T1-T4), the tapes being fibrous tapes, each comprising a plurality of fibers or filaments, the warps (W11-W15, W21-W24) and wefts (T1-T4) interlace, and wherein at least the warps (W11-W15, W21-W24) are arranged in at least two unidirectional and at least partly overlapping layers, wherein at least one warp of one layer is offset in relation to warps in the other layer so that the offset warp overlies and covers at least one longitudinal gap between adjacent warps in the other layer, wherein the warps provided in said at least two layers comprise at least some warps (W11-W15, W21-W24) grouped in units of grouped warps whereby each weft (T1-T4) interlaces with the units of grouped warps, and wherein the interlacing of the weft (T1-T4) occurs in such a way that all wefts run in paths above, below and in between said overlapping warp layers, thereby forming a delamination resisting fabric.
System for orienting the vertical inclination of railing panels in a railing panel holder with a support part to be inserted into the railing panel holder and a sliding part longitudinally displaceable relative to the support part in the direction (L) in which the railing runs, the system forming at least one inner contact side , which predetermines the vertical inclination of the railing panel , and at least one outer contact side , which ensures the support in the railing panel holder , wherein the outer contact side is formed by the outer side of the support part or the outer side of the sliding part and a different vertical inclination of the inner contact side can be set by means of the different positioning of the sliding part relative to the support part resulting from the longitudinal displacement of the sliding part , characterized in that the sliding part and the support part cooperate in such a way that, in the event of a longitudinal displacement of the sliding part , a change in the vertical inclination of the inner contact side takes place independently of the vertical inclination of the outer contact side .
A drawing method of an optical fiber glass preform for drawing processing the optical fiber glass preform, by a plurality of drawing steps, to a final target diameter, wherein the optical fiber glass preform in a preliminary step of a final drawing step is drawn so that when an outer diameter of an effective portion of the optical fiber glass preform is continuously measured in a longitudinal direction, and from outer diameter measurement results obtained, a regression line of y = ax + b is obtained using the least squares method with y as the outer diameter and x as a length, an obtained absolute value of a slope a is less than or equal to 0.005 mm/mm; and a maximum value of an absolute value of a curvature of the outer diameter at any given point, in the outer diameter measurement results obtained, is 0.003 or less, the curvature being calculated as curvature = second derivative / {1 + (absolute value of first derivative) 15 }, where the first derivative and second derivative of the outer diameter are calculated in the longitudinal direction from the outer diameter measurement results. the optical fiber glass preform in a preliminary step of a final drawing step is drawn so that when an outer diameter of an effective portion of the optical fiber glass preform is continuously measured in a longitudinal direction, and from outer diameter measurement results obtained, a regression line of y = ax + b is obtained using the least squares method with y as the outer diameter and x as a length, an obtained absolute value of a slope a is less than or equal to 0.005 mm/mm; and a maximum value of an absolute value of a curvature of the outer diameter at any given point, in the outer diameter measurement results obtained, is 0.003 or less, the curvature being calculated as curvature = second derivative / {1 + (absolute value of first derivative) 15 }, where the first derivative and second derivative of the outer diameter are calculated in the longitudinal direction from the outer diameter measurement results.