mhurhangee/patent-ind-claim-en huggingface dataset:
Method for measuring NMR-data of a target sample in an NMR spectrometer , said NMR spectrometer comprising a main field magnet for generating a main magnetic field , wherein the main magnetic field shows main magnet variations, at least one compensation coil , at least one target sample coil (6, 6-1, 6-N), a lock sample coil , at least one target channel (11-1, 11-N) for generating RF-pulses with a target frequency and a lock data treatment system with a lock channel for generating RF-pulses with a lock excitation frequency and, the method comprising the following steps: i) providing a transfer function TF, TF1, TF-2 said transfer function TF, TF1, TF-2 correlating a target resonance frequency of the resonance peak of the target sample and a lock resonance frequency of the resonance peak of a lock sample at a present compensation current I comp of the at least one compensation coil , coefficients of said transfer function TF, TF1, TF-2 being stored in the lock data treatment system ; ii) measuring lock data FID lock by means of the lock sample coil ; iii) determining an actual required compensation current I comp for compensating temporal changes of the main magnetic field , the compensation current I comp being determined by processing the lock data FID lock of step ii); iv) applying the compensation current I comp to the at least one compensation coil ; v) determining a target frequency correction offset FCO for the required compensation current I comp by using the transfer function TF, TF1, TF-2; vi) acquiring NMR-data of the target sample by exciting nuclei of the target sample by applying an RF-pulse by means of the target sample coil (6, 6-1, 6-N) with a target excitation frequency corrected by the target frequency correction offset FCO. i) providing a transfer function TF, TF1, TF-2 said transfer function TF, TF1, TF-2 correlating a target resonance frequency of the resonance peak of the target sample and a lock resonance frequency of the resonance peak of a lock sample at a present compensation current I comp of the at least one compensation coil , coefficients of said transfer function TF, TF1, TF-2 being stored in the lock data treatment system ; ii) measuring lock data FID lock by means of the lock sample coil ; iii) determining an actual required compensation current I comp for compensating temporal changes of the main magnetic field , the compensation current I comp being determined by processing the lock data FID lock of step ii); iv) applying the compensation current I comp to the at least one compensation coil ; v) determining a target frequency correction offset FCO for the required compensation current I comp by using the transfer function TF, TF1, TF-2; vi) acquiring NMR-data of the target sample by exciting nuclei of the target sample by applying an RF-pulse by means of the target sample coil (6, 6-1, 6-N) with a target excitation frequency corrected by the target frequency correction offset FCO.
A method for forming a tissue scaffold, comprising cross-linking a composition, the composition comprising elastin, fibrin and collagen, wherein the elastin comprises solubilised elastin.
A battery, comprising: a shell ; at least two cores received in the shell and each having first and second electrode tabs ; and first and second protection components connected to each core , each of the first and second protection components including two insulating layers and a conducting layer disposed between two insulating layers, wherein the conducting layer of the first protection component defines a first end electrically connected to the first electrode tab and a second end configured as a free end, and the conducting layer of the second protection component defines a first end electrically connected to the second electrode tab and a second end configured as a free end, wherein the first and second protection components of the at least two cores are disposed between the shell and the core , and between two adjacent cores . a shell ; at least two cores received in the shell and each having first and second electrode tabs ; and first and second protection components connected to each core , each of the first and second protection components including two insulating layers and a conducting layer disposed between two insulating layers, wherein the conducting layer of the first protection component defines a first end electrically connected to the first electrode tab and a second end configured as a free end, and the conducting layer of the second protection component defines a first end electrically connected to the second electrode tab and a second end configured as a free end, wherein the first and second protection components of the at least two cores are disposed between the shell and the core , and between two adjacent cores .
An isolated humanized monoclonal antibody that specifically binds to Neu5Acα2→ 3Galβ1→ 3GalNAcβ1→ 3Galα1→ 4Galβ1→ 4Glcβ1, wherein the antibody comprises a VH having SEQ ID NO: 147 and a VL having SEQ ID NO: 148.
A position and orientation sensor package comprising: a dielectric substrate ; a first magneto-resistance sensor chip attached to the dielectric substrate, the first magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit ; a second magneto-resistance sensor chip attached to the dielectric substrate and positioned adjacent the first magneto-resistance sensor chip, the second magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; wherein the at least one magneto-resistance sensor circuit of the first magneto-resistance sensor chip is oriented in a different direction than the at least one magneto-resistance sensor circuit of the second magneto-resistance sensor chip; and a common calibration coil positioned a fixed distance from the at least one magneto-resistance sensor circuit on each of the first and second magneto-resistance sensor chips, the common calibration coil configured to generate a calibration magnetic field that provides for calibration of each of the first and second magneto-resistance sensor chips. a dielectric substrate ; a first magneto-resistance sensor chip attached to the dielectric substrate, the first magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit ; a second magneto-resistance sensor chip attached to the dielectric substrate and positioned adjacent the first magneto-resistance sensor chip, the second magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; wherein the at least one magneto-resistance sensor circuit of the first magneto-resistance sensor chip is oriented in a different direction than the at least one magneto-resistance sensor circuit of the second magneto-resistance sensor chip; and a common calibration coil positioned a fixed distance from the at least one magneto-resistance sensor circuit on each of the first and second magneto-resistance sensor chips, the common calibration coil configured to generate a calibration magnetic field that provides for calibration of each of the first and second magneto-resistance sensor chips.
System for generating a 3D structure, comprising a particulate construction material composed of particles with a diameter, a compressor arrangement with a means for compressing the particulate construction material to be applied in layers, and a drive means which is connected to the compression means and which sets the compression means into linear motion, wherein a compressor element having a blade with at least one cutting edge is arranged in the compressor arrangement for compressing the particulate construction material to be applied in layers, and wherein the width of a cutting edge, at an end of the cutting edge that is in contact with particles of a particulate construction material during a compression operation, is between 0.1 times and 3 times the diameter of a particle of the particulate construction material.
A track assembly for a tracked vehicle, comprising: a support shaft disposed to be orthogonal to a traveling direction of a work body ; and a rotary roller fitted on the outer periphery of the support shaft and rotating while supporting the inner side of a chain belt ; characterized in that , the tracked vehicle further comprises: a first detection unit disposed between the support shaft and the rotary roller to measure either the number of rotations of the rotary roller or the acceleration thereof; a second detection unit for measuring the temperature of a lubricant applied between the support shaft and the rotary roller ; and a third detection unit disposed on the rotary roller to measure a wear state of the rotary roller . a support shaft disposed to be orthogonal to a traveling direction of a work body ; and a rotary roller fitted on the outer periphery of the support shaft and rotating while supporting the inner side of a chain belt ; characterized in that , the tracked vehicle further comprises: a first detection unit disposed between the support shaft and the rotary roller to measure either the number of rotations of the rotary roller or the acceleration thereof; a second detection unit for measuring the temperature of a lubricant applied between the support shaft and the rotary roller ; and a third detection unit disposed on the rotary roller to measure a wear state of the rotary roller . a first detection unit disposed between the support shaft and the rotary roller to measure either the number of rotations of the rotary roller or the acceleration thereof; a second detection unit for measuring the temperature of a lubricant applied between the support shaft and the rotary roller ; and a third detection unit disposed on the rotary roller to measure a wear state of the rotary roller .
An ink container with disposed therein an ink level sensor, the ink level sensor comprising: a carrier (222; 722; 1922); an ink level sensing interface (24; 1924) disposed on the carrier (222; 722; 1922); a number of ink level sensing components (30, 34; 1925-1, 1925-2) disposed on the ink level sensing interface (24; 1924), the number of ink level sensing components (30, 34; 1925-1, 1925-2) to detect an ink level in an ink container; and an electrical interconnect (226; 726) to output data collected from the number of ink level sensing components; wherein the ink level sensing interface comprises a strip, a series of heaters and a series of sensors and wherein the heaters and respective sensors are arranged in pairs in an array of stacks on the strip vertically spaced along the length of the strip, characterized in that the ink level sensing interface has an aspect ratio such that the interface is at least 50 times longer than it is wide, the strip is silicon, and the sensors have a one-dimensional density along the strip of at least 40 sensors per centimeter. a carrier (222; 722; 1922); an ink level sensing interface (24; 1924) disposed on the carrier (222; 722; 1922); a number of ink level sensing components (30, 34; 1925-1, 1925-2) disposed on the ink level sensing interface (24; 1924), the number of ink level sensing components (30, 34; 1925-1, 1925-2) to detect an ink level in an ink container; and an electrical interconnect (226; 726) to output data collected from the number of ink level sensing components; wherein the ink level sensing interface comprises a strip, a series of heaters and a series of sensors and wherein the heaters and respective sensors are arranged in pairs in an array of stacks on the strip vertically spaced along the length of the strip, characterized in that the ink level sensing interface has an aspect ratio such that the interface is at least 50 times longer than it is wide, the strip is silicon, and the sensors have a one-dimensional density along the strip of at least 40 sensors per centimeter.
Medical image registration method comprising: - receiving a medical image captured using a contrast agent; - determining a phase of the medical image by using a classification model which comprises an artificial intelligence model that outputs the phase of the medical image; and - registering the medical image to a reference image by using a registration model which comprise an artificial intelligence model for registering the medical image to the reference image, - wherein a plurality of registration models is provided for registering images of different phases and the registering comprises selecting one of the registration models to be used for registration, based on the phase of the medical image and a phase of the reference image. - receiving a medical image captured using a contrast agent; - determining a phase of the medical image by using a classification model which comprises an artificial intelligence model that outputs the phase of the medical image; and - registering the medical image to a reference image by using a registration model which comprise an artificial intelligence model for registering the medical image to the reference image, - wherein a plurality of registration models is provided for registering images of different phases and the registering comprises selecting one of the registration models to be used for registration, based on the phase of the medical image and a phase of the reference image.
A method for operating a robotic work tool comprising a sensor for detecting a boundary wire demarcating a work area , the method comprising: detecting at least a partial crossing of the boundary wire ; allowing a crossing of the boundary wire by an offset; characterised in that the method comprises switching between a first offset setting and at least a second offset setting stored in the robotic work tool based on one or more occurring events . detecting at least a partial crossing of the boundary wire ; allowing a crossing of the boundary wire by an offset; characterised in that the method comprises switching between a first offset setting and at least a second offset setting stored in the robotic work tool based on one or more occurring events .
A rotation ring comprising: an inner ring with a first rolling element travel groove ; an outer ring with a second rolling element travel groove facing the first rolling element travel groove ; and a plurality of rolling elements interposed between the first rolling element travel groove and the second rolling element travel groove , wherein the plurality of rolling elements include a plurality of hard rolling elements that are disposed at intervals in a circumferential direction, and a plurality of soft rolling elements , at least three or more of which are disposed between the hard rolling elements adjacent to each other in the circumferential direction and which are lower in rigidity than the hard rolling elements , characterised in that the hard rolling elements , are smaller than an elastically deformable size of the soft rolling elements . an inner ring with a first rolling element travel groove ; an outer ring with a second rolling element travel groove facing the first rolling element travel groove ; and a plurality of rolling elements interposed between the first rolling element travel groove and the second rolling element travel groove , wherein the plurality of rolling elements include a plurality of hard rolling elements that are disposed at intervals in a circumferential direction, and a plurality of soft rolling elements , at least three or more of which are disposed between the hard rolling elements adjacent to each other in the circumferential direction and which are lower in rigidity than the hard rolling elements , characterised in that the hard rolling elements , are smaller than an elastically deformable size of the soft rolling elements .
A radiographic image generating device, for generating an radiographic image for a sample, using an intensity distribution image for radiation that has passed through the sample and a grating group that have been arranged on a path from a source section to a detection section, comprising: a pixel value computation section and an image computation section, characterised in that the pixel value computation section determines, using a plurality of intensity distribution images for the sample that is moved in a direction that traverses the path, whether or not point (p, q) on the sample falls in a region (Ak) on each intensity distribution image, and obtains a sum pixel value (Jk) for each region (Ak) by summing up pixel values, on each intensity distribution image, of the point (p, q) that falls in each region (Ak), and the image computation section creates a necessary radiographic image using the sum pixel values (Jk) of the regions (Ak). a pixel value computation section and an image computation section, characterised in that the pixel value computation section determines, using a plurality of intensity distribution images for the sample that is moved in a direction that traverses the path, whether or not point (p, q) on the sample falls in a region (Ak) on each intensity distribution image, and obtains a sum pixel value (Jk) for each region (Ak) by summing up pixel values, on each intensity distribution image, of the point (p, q) that falls in each region (Ak), and the image computation section creates a necessary radiographic image using the sum pixel values (Jk) of the regions (Ak).
A novel phenol resin having a resin structure in which a naphthol skeleton (n) and a naphthoquinone skeleton (q) are bonded through a methylene bond, wherein a polycondensate (a) of a naphthol compound and formaldehyde is oxidized to form the naphthoquinone skeleton (q) in a resin structure of the polycondensate, and wherein the naphthoquinone skeleton (q) is represented by structural formula q1 or q2 below: (wherein R 1 and R 2 are each independently a hydrogen atom, a methyl group, an ethyl group, or a methoxy group, and two lines in the structural formula q1 or q2 each indicate a bond to another structural site and may be positioned on the same ring or different rings of the two rings constituting the structure).
Apparatus for targeting for a guided missile , comprising a first imaging optical system , which has a first entry lens , a second imaging optical system , which has a second entry lens , a first sensor , a second sensor , a heat sink , at least one mirror means , a capsule and a screen , wherein a) the first sensor is in the form of an infrared sensor, b) the second sensor is connected to the heat sink so as to conduct heat, c) the first imaging optical system routes a first beam path to the first sensor , d) the second entry lens is incorporated in a cutout in the first entry lens , e) the second sensor is arranged outside the first beam path , f) the second imaging optical system routes a second beam path to the second sensor by means of the at least one mirror means , wherein the at least one mirror means is screened from the first beam path by the capsule , and g) the second beam path is routed to the second sensor through the screen , wherein the screen is mounted outside the first beam path and is connected to the heat sink so as to conduct heat. a) the first sensor is in the form of an infrared sensor, b) the second sensor is connected to the heat sink so as to conduct heat, c) the first imaging optical system routes a first beam path to the first sensor , d) the second entry lens is incorporated in a cutout in the first entry lens , e) the second sensor is arranged outside the first beam path , f) the second imaging optical system routes a second beam path to the second sensor by means of the at least one mirror means , wherein the at least one mirror means is screened from the first beam path by the capsule , and g) the second beam path is routed to the second sensor through the screen , wherein the screen is mounted outside the first beam path and is connected to the heat sink so as to conduct heat.
(Currently Amended) A system comprising: an object having a portion formed from a structured carbon nanotube (CNT) engineered material having a structured CNT network, wherein a first plurality of CNTs are structured relative to one another or with respect to a substrate; a pair of electrode arrays and positioned on opposite sides of the structured CNT network wherein one of the electrode arrays includes a plurality of active electrode columns and the other electrode array includes a plurality of passive electrode rows defining a detection grid, a control system operationally coupled to the structured CNT network and configured or programmed to drive the structured CNT network with electrical energy to cause a voltage between a pair of respective active and passive electrodes; wherein the control system is configured to drive the structured CNT network with electrical energy to generate heat to increase or maintain a temperature of a substance associated with the object at or above the selected temperature; and detection system coupled to the structured CNT network for detecting a change in a physical property or characteristic related to the object based on a measurement of a change in electrical conductivity or resistivity of the structured CNT network based on the voltage, the change in the physical property or characteristic provides an indication of a change in a structural property or characteristic of the object. an object having a portion formed from a structured carbon nanotube (CNT) engineered material having a structured CNT network, wherein a first plurality of CNTs are structured relative to one another or with respect to a substrate; a pair of electrode arrays and positioned on opposite sides of the structured CNT network wherein one of the electrode arrays includes a plurality of active electrode columns and the other electrode array includes a plurality of passive electrode rows defining a detection grid, a control system operationally coupled to the structured CNT network and configured or programmed to drive the structured CNT network with electrical energy to cause a voltage between a pair of respective active and passive electrodes; wherein the control system is configured to drive the structured CNT network with electrical energy to generate heat to increase or maintain a temperature of a substance associated with the object at or above the selected temperature; and detection system coupled to the structured CNT network for detecting a change in a physical property or characteristic related to the object based on a measurement of a change in electrical conductivity or resistivity of the structured CNT network based on the voltage, the change in the physical property or characteristic provides an indication of a change in a structural property or characteristic of the object.
An apparatus comprising a housing with a first end (A) and a second end (B), and a plurality of juxtaposed flexible tubes , there being a balloon docked at the end of each tube , wherein a first group of flexible tubes have their distal ends more proximate the housing than a second group of flexible tubes, thereby locating a first group of balloons docked at the end of each tube of the first group of flexible tubes more proximate the housing than a second group of balloons docked at the end of each tube of the second group of flexible tubes; wherein the flexible tubes extend from the second end (B) of the housing and facilitate filling the balloons with a fluid, wherein the balloons are disposed in sufficient proximity to one another to push on each other during their filling, thereby causing the tubes to flex, and wherein each balloon has an elastic fastener to serve the multiple functions of (a) holding a balloon to its flexible tube to receive issuing fluid, (b) allowing dedocking of its balloon , and (c) acting as a constrictor to seal fluid content in its balloon as the fluid filled balloon is being dedocked and/or upon dedocking; wherein the fluid is water, and wherein separation of the water filled balloon from its flexible tube can be caused or assisted by the weight or inertia of the water in the balloon. (a) holding a balloon to its flexible tube to receive issuing fluid, (b) allowing dedocking of its balloon , and (c) acting as a constrictor to seal fluid content in its balloon as the fluid filled balloon is being dedocked and/or upon dedocking;