mhurhangee/patent-ind-claim-en huggingface dataset:
Footwear item-skate with multiple interchangeable blades for ice and skating rinks, comprising a boot , characterized in that the boot is made of: - a resistant synthetic sole comprising a first plurality of channels and arranged in a "T" section in the area of the sole and in a second plurality of channels arranged in a "T" section in the area of the heel, with at least one small recess transversal to each area, the first plurality of channels and the second plurality of channels are aligned with and parallel to each other, - a first and a second preformed metal plate comprising a series of first guides and a series of second guides , all of them arranged in a "T" section and in a similar number to the plurality of channels arranged in a "T" section in the area of the sole and in the area of the heel, with a small bushing housing a retractable bolt with a retainer, attached to the guides, and - a set of metal blades in a "T" section, with short blades and long blades , all of them comprising a through hole on the upper part of their vertical side, such that the preformed metal plates are inserted in and secured to the area of the sole and the area of the heel of the sole , in the manner of a cover, with their series of guides fitting into the plurality of channels of the sole by means of the small bushings housed in the small transversal recesses . - a resistant synthetic sole comprising a first plurality of channels and arranged in a "T" section in the area of the sole and in a second plurality of channels arranged in a "T" section in the area of the heel, with at least one small recess transversal to each area, the first plurality of channels and the second plurality of channels are aligned with and parallel to each other, - a first and a second preformed metal plate comprising a series of first guides and a series of second guides , all of them arranged in a "T" section and in a similar number to the plurality of channels arranged in a "T" section in the area of the sole and in the area of the heel, with a small bushing housing a retractable bolt with a retainer, attached to the guides, and - a set of metal blades in a "T" section, with short blades and long blades , all of them comprising a through hole on the upper part of their vertical side,
A sensor, comprising: a set of coils, the set of coils include a first coil and a second coil , wherein the first coil upon receiving energy, generates an electromagnetic near-field, such that the electromagnetic near-field provides at least a portion of the energy to the second coil through inductive coupling, inducing a current to pass through the set of coils; a detector for measuring each voltage across both the first coil and the second coil; and a processor for detecting a presence of a target structure in proximity to the set of coils upon detecting a change in a value of the voltage; characterized in that both the first coil and the second coil are in communication with the detector , the detector includes a voltmeter that detects each voltage across both the first coil and the second coil, such that the value of the voltage measured by the voltmeter represents both the first voltage across the first coil and the second voltage across the second coil, and wherein the processor determines a relative position of the target structure with respect to the first coil based on the change in the value of the first voltage, and a relative position of the target structure with respect to the second coil based on the change in the value of the second voltage. a set of coils, the set of coils include a first coil and a second coil , wherein the first coil upon receiving energy, generates an electromagnetic near-field, such that the electromagnetic near-field provides at least a portion of the energy to the second coil through inductive coupling, inducing a current to pass through the set of coils; a detector for measuring each voltage across both the first coil and the second coil; and a processor for detecting a presence of a target structure in proximity to the set of coils upon detecting a change in a value of the voltage; characterized in that both the first coil and the second coil are in communication with the detector , the detector includes a voltmeter that detects each voltage across both the first coil and the second coil, such that the value of the voltage measured by the voltmeter represents both the first voltage across the first coil and the second voltage across the second coil, and wherein the processor determines a relative position of the target structure with respect to the first coil based on the change in the value of the first voltage, and a relative position of the target structure with respect to the second coil based on the change in the value of the second voltage.
A MEMS structure comprising: a stack comprising a substrate , a first etch-stop layer , a first semiconductor layer , a second etch-stop layer , a second semiconductor layer which are arranged one above the other in the order mentioned; a spring-and-mass system formed in the stack comprising at least one spring (53a-d; 56a-d) and an element suspended via the spring (53-d; 56a-d); and wherein the spring-and-mass system varies in thickness by removing, starting from a back side of the substrate facing away from the first etch-stop layer : at a first position, the substrate while leaving the first semiconductor layer ; and at a second position, laterally different from the first position, the substrate , the first etch-stop layer and the first semiconductor layer ; characterized in that , by removing different sequences of layers at different positions, the at least one spring (53a-d; 56a-d) varies in its thickness so as to form a stiffening spring (53a-d) in a first portion of the spring (53a-d; 56a-d) and a mechanically active region (56a-d) of the spring (53a-d; 56a-d) in a second portion of the spring (53a-d; 56a-d), the first portion being thicker than the second portion such that the mechanically active region (56a-d) comprises a smaller stiffness compared to the stiffening spring (53a-d). a stack comprising a substrate , a first etch-stop layer , a first semiconductor layer , a second etch-stop layer , a second semiconductor layer which are arranged one above the other in the order mentioned; a spring-and-mass system formed in the stack comprising at least one spring (53a-d; 56a-d) and an element suspended via the spring (53-d; 56a-d); and wherein the spring-and-mass system varies in thickness by removing, starting from a back side of the substrate facing away from the first etch-stop layer : at a first position, the substrate while leaving the first semiconductor layer ; and at a second position, laterally different from the first position, the substrate , the first etch-stop layer and the first semiconductor layer ; at a first position, the substrate while leaving the first semiconductor layer ; and at a second position, laterally different from the first position, the substrate , the first etch-stop layer and the first semiconductor layer ; characterized in that , by removing different sequences of layers at different positions, the at least one spring (53a-d; 56a-d) varies in its thickness so as to form a stiffening spring (53a-d) in a first portion of the spring (53a-d; 56a-d) and a mechanically active region (56a-d) of the spring (53a-d; 56a-d) in a second portion of the spring (53a-d; 56a-d), the first portion being thicker than the second portion such that the mechanically active region (56a-d) comprises a smaller stiffness compared to the stiffening spring (53a-d).
Method in-vitro or ex-vivo of monitoring the status of the transplanted organ rejection or of the immunosuppressive therapy efficacy in a subject, comprising: a) providing cell-free DNA from a biological sample obtained from a subject who is the recipient of an organ transplant from a donor; b) sequencing a panel of 94 single nucleotide polymorphisms (SNPs) from the cell-free DNA, and c) calculating the quantity of the donor-derived cell-free DNA in said biological sample; characterized in that the 94 single nucleotide polymorphisms sequenced at point b) are that listed in Table 3, in that step c) calculate the differences in SNP positions by identifying and comparing variations in specific nucleotide positions between the donor-derived cell-free DNA and the recipient-derived cell-free DNA, using the recipient's genomic DNA previously characterized, as reference, and in that step c) is based on the calculation of cfDNA donor fraction with the formula: DFi % = AF SNPi − AF SNPi rec / AF SNPi don − AF SNPi rec × 100 for each SNPi and total DF% is calculated as: DF% = mean DFi% ± SD DF wherein: AF(SNP i ) is the allele frequency of the SNP considered, calculated for the total cfDNA mixture (donor+recipient), and AF(SNP idon ) and AF(SNP irec ) is the allele frequency of the SNP considered in the donor and recipient cfDNA respectively, according to their genotype. a) providing cell-free DNA from a biological sample obtained from a subject who is the recipient of an organ transplant from a donor; b) sequencing a panel of 94 single nucleotide polymorphisms (SNPs) from the cell-free DNA, and c) calculating the quantity of the donor-derived cell-free DNA in said biological sample; AF(SNP i ) is the allele frequency of the SNP considered, calculated for the total cfDNA mixture (donor+recipient), and AF(SNP idon ) and AF(SNP irec ) is the allele frequency of the SNP considered in the donor and recipient cfDNA respectively, according to their genotype.
An electric heater comprising: a substrate ; an outer pattern part (31 to 35) disposed on one surface of the substrate and to connect with a pair of first electrodes ; a first inner pattern part (51A to 56A, 61A to 65A) disposed on the one surface of the substrate, to be apart from the outer pattern part (31 to 35), and to connect with a pair of second electrodes spaced apart from the pair of first electrodes ; and a second inner pattern part (51B to 56B, 61B to 65B) disposed on the one surface of the substrate and spaced apart from the first inner pattern part (51A to 56A, 61A to 65A), wherein the outer pattern part (31 to 35) surrounds the first inner pattern part (51A to 56A, 61A to 65A) and the second inner pattern part (51B to 56B, 61B to 65B), characterized in that the second inner pattern part (51B to 56B, 61B to 65B) is connected to the pair of second electrodes in parallel with the first inner pattern part (51A to 56A, 61A to 65A). a substrate ; an outer pattern part (31 to 35) disposed on one surface of the substrate and to connect with a pair of first electrodes ; a first inner pattern part (51A to 56A, 61A to 65A) disposed on the one surface of the substrate, to be apart from the outer pattern part (31 to 35), and to connect with a pair of second electrodes spaced apart from the pair of first electrodes ; and a second inner pattern part (51B to 56B, 61B to 65B) disposed on the one surface of the substrate and spaced apart from the first inner pattern part (51A to 56A, 61A to 65A), wherein the outer pattern part (31 to 35) surrounds the first inner pattern part (51A to 56A, 61A to 65A) and the second inner pattern part (51B to 56B, 61B to 65B), characterized in that the second inner pattern part (51B to 56B, 61B to 65B) is connected to the pair of second electrodes in parallel with the first inner pattern part (51A to 56A, 61A to 65A).
A coffee machine comprising a body , a water tank which is disposed in the body , wherein the water to be used in the brewing process is stored and which has an inlet opening for filling in the water and a lid closing the inlet opening , and a handle which is disposed in the water tank , which has a passive position wherein the handle is concealed in the water tank and an active position wherein the handle is moved outwards from the water tank so as to be gripped by the user, and which shifts to the active position from the passive position upon being triggered when the lid is opened, characterized by a tab which is provided on the lid and which contacts the handle while the lid is being opened so as to trigger the handle and enable the same to shift to the active position from the passive position.
An accessory storage compartment lid for covering an access opening of an accessory storage compartment in a vehicle , said accessory storage compartment lid having an inside , intended to face towards the interior of the accessory storage compartment when the lid is positioned to cover the opening of the accessory storage compartment , and an outside intended to face away from the interior of a accessory storage compartment when the lid is positioned to cover the opening of the accessory storage compartment , said accessory storage compartment lid further provided with a hook arrangement comprising a shaft and a hook , said hook arrangement may be switched between a first, storage position (I) in which the hook is located at the inside of the accessory storage compartment lid and a second, operative position (II) in which the hook is located on the outside of the accessory storage compartment lid characterized in that said shaft of the hook arrangement is a rigid self supporting structure which is attached to the accessory storage compartment lid by a hinge located on the inside of the accessory storage compartment lid .
Use of a dryer sheet to reduce airborne fibers release during the treatment of fabrics in a vented tumble dryer.
A deployable reflector comprising: (a) ribs which form part of a structure of the reflector (b) a set of pre-tensioned catenary-shaped chords disposed on an aft side of a surface of the reflector and stretch between the ribs forming aft catenaries, (c) a mesh reflecting surface , (d) a second set of elongate members attached to the mesh reflecting surface and extending in different directions along and around the mesh reflecting surface, dividing the mesh reflecting surface into substantially flat regions, wherein the second set of elongate members includes two subsets of substantially parallel elongate members forming a forward net of parallelogram-shaped openings of equal sizes, (e) a first set of elongate members attached to the mesh reflecting surface and the aft catenaries to shape the mesh reflecting surface by applying forces having a significant component in a direction substantially perpendicular to the mesh reflecting surface, wherein the first set of elongate members includes one or more tension only members , and one or more tension/compression members capable of applying compressive force, wherein the first elongate members are attached to the aft catenaries via beads with adjustable knots. (a) ribs which form part of a structure of the reflector (b) a set of pre-tensioned catenary-shaped chords disposed on an aft side of a surface of the reflector and stretch between the ribs forming aft catenaries, (c) a mesh reflecting surface , (d) a second set of elongate members attached to the mesh reflecting surface and extending in different directions along and around the mesh reflecting surface, dividing the mesh reflecting surface into substantially flat regions, wherein the second set of elongate members includes two subsets of substantially parallel elongate members forming a forward net of parallelogram-shaped openings of equal sizes, (e) a first set of elongate members attached to the mesh reflecting surface and the aft catenaries to shape the mesh reflecting surface by applying forces having a significant component in a direction substantially perpendicular to the mesh reflecting surface, wherein the first set of elongate members includes one or more tension only members , and one or more tension/compression members capable of applying compressive force,
A helicopter, comprising: a vibration transmitting member ; rotor blades rotatably supported by said vibration transmitting member , wherein said rotor blades generate thrust force of said helicopter by rotations thereof; and a vibration reduction apparatus, comprising: a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member ; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object ; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades ; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor . a vibration transmitting member ; rotor blades rotatably supported by said vibration transmitting member , wherein said rotor blades generate thrust force of said helicopter by rotations thereof; and a vibration reduction apparatus, comprising: a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member ; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object ; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades ; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor . a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member ; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object ; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades ; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor .
A therapeutically effective amount of adipose-derived stem and regenerative cells for use in the treatment of Raynaud's phenomenon in a subject in need thereof.
A bone marrow puncture device with a tip configured to be inserted into a medullary cavity to collect a bone marrow fluid, the tip comprising, a tubular body, a tip rotation section, and a connection member , wherein the tubular body comprises a distal end, and an opening in a surface at the distal end, the tip rotation section is configured to puncture a tissue in a medullary cavity while rotating together with the tubular body, and disposed on a distal side of the surface at the distal end in the tubular body, and the connection member configured to connect the tubular body and the tip rotation section.; characterized by the tip rotation section comprising a disc-shaped member having a radial central axis on a central axis extending in the longitudinal direction of the tubular body. a tubular body, a tip rotation section, and a connection member , wherein the tubular body comprises a distal end, and an opening in a surface at the distal end, a distal end, and an opening in a surface at the distal end, the tip rotation section is configured to puncture a tissue in a medullary cavity while rotating together with the tubular body, and disposed on a distal side of the surface at the distal end in the tubular body, and the connection member configured to connect the tubular body and the tip rotation section.; characterized by the tip rotation section comprising a disc-shaped member having a radial central axis on a central axis extending in the longitudinal direction of the tubular body.
A method comprising: receiving, from each of two 360-degree cameras (210, 310, 410; 215, 315, 415), image data including one or more images; synchronizing the received image data from each of the two 360-degree cameras (210, 310, 410;215, 315, 415), wherein the synchronizing of the received image data comprises: - adjusting sizes of one or more images from the two 360-degree cameras to generate similar sized images, and - aligning images from one of the two 360-degree cameras with images from another one of the two 360-degree cameras by extracting a time stamp associated with each set of image data from each 360-degree camera and aligning the images to a single point in time; creating a depth map from the synchronized image data based in part on a distance between the two 360-degree cameras (210, 310, 410; 215, 315, 415); and generating 2.5-dimensional content by combining the created depth map with the synchronized image data of at least one of the two 360-degree cameras (210, 310, 410; 215, 315, 415). receiving, from each of two 360-degree cameras (210, 310, 410; 215, 315, 415), image data including one or more images; synchronizing the received image data from each of the two 360-degree cameras (210, 310, 410;215, 315, 415), wherein the synchronizing of the received image data comprises: - adjusting sizes of one or more images from the two 360-degree cameras to generate similar sized images, and - aligning images from one of the two 360-degree cameras with images from another one of the two 360-degree cameras by extracting a time stamp associated with each set of image data from each 360-degree camera and aligning the images to a single point in time; - adjusting sizes of one or more images from the two 360-degree cameras to generate similar sized images, and - aligning images from one of the two 360-degree cameras with images from another one of the two 360-degree cameras by extracting a time stamp associated with each set of image data from each 360-degree camera and aligning the images to a single point in time; creating a depth map from the synchronized image data based in part on a distance between the two 360-degree cameras (210, 310, 410; 215, 315, 415); and generating 2.5-dimensional content by combining the created depth map with the synchronized image data of at least one of the two 360-degree cameras (210, 310, 410; 215, 315, 415).
A system for controlling at least two unmanned aerial vehicles in a flight formation, wherein each aerial vehicle has a flight control unit for controlling the flight path of the aerial vehicle by means of a drive unit and a camera that may be rotated by means of an orientation means at least about one axis, wherein in the system there is provided at least one flight formation control unit for the wireless communication with the aerial vehicles , wherein the at least one flight formation control unit is configured to control the flight control units and the orientation means during a recording of at least one moving object that is to be filmed in such a way that a spatial arrangement of the aerial vehicles in relation to the object and the orientation of the optical axis of each camera in relation to the object and/or in relation to the orientation/s of the optical axis / axes of the other camera/s is substantially maintained and optionally adjusted substantially in real time, and wherein the flight formation control unit maintains and/or adjusts the orientation of the optical axis of a camera in relation to the orientation/s of the optical axis / axes of the other camera/s such that a field of vision of this camera is free of an aerial vehicle and/or a camera of the system .