mhurhangee/patent-ind-claim-en huggingface dataset:
A cellular cushioning system comprising: a first matrix of void cells ; and a second matrix of void cells opposing the first matrix of void cells, wherein one or more peaks of each void cell in the second matrix is attached to one or more peaks of each void cell in the first matrix; wherein peak surfaces of the void cells of the first matrix and peak surfaces of the void cells of the second matrix are attached together; characterized in that at least two void cells of the first matrix are attached to the peak surface of one void cell of the second matrix ; nd in that the void cells of the first matrix have a higher cell resolution than the void cells of the second matrix . a first matrix of void cells ; and a second matrix of void cells opposing the first matrix of void cells, wherein one or more peaks of each void cell in the second matrix is attached to one or more peaks of each void cell in the first matrix; wherein peak surfaces of the void cells of the first matrix and peak surfaces of the void cells of the second matrix are attached together; characterized in that at least two void cells of the first matrix are attached to the peak surface of one void cell of the second matrix ; nd in that the void cells of the first matrix have a higher cell resolution than the void cells of the second matrix .
A dry formulation of a vaccine that comprises a live attenuated canine parvovirus (CPV), 10% to 80% (w/w) of a sugar alcohol, 10% to 70% (w/w) of a bulking stabilizer, 4% to 50% (w/w) of a protein stabilizer, and a buffer having a pH of 6.8 to 8.0.
A method for wireless communication by a user equipment, UE, comprising: receiving a first control message from a base station, BS, activating a first semi-static scheduling configuration and a second semi-static scheduling configuration for full duplex communication, wherein: the first semi-static scheduling configuration comprises at least one semi-persistent scheduling, SPS, occasion in which the UE is scheduled to receive a downlink transmission from the BS, and the second semi-static scheduling configuration comprises at least one configured grant, CG, occasion in which the UE is scheduled to transmit an uplink transmission to the BS, wherein the at least one CG occasion at least partially overlaps in time with the at least one SPS occasion; receiving a second control message comprising a dynamic grant that schedules a transmission associated with the UE that overwrites at least one of the downlink transmission in the at least one SPS occasion or the uplink transmission in the at least one CG occasion; and taking one or more actions, based on the dynamic grant, to communicate, with the BS, at least the transmission that overwrites the at least one of the downlink transmission in the at least one SPS occasion or the uplink transmission in the at least one CG occasion. receiving a first control message from a base station, BS, activating a first semi-static scheduling configuration and a second semi-static scheduling configuration for full duplex communication, wherein: the first semi-static scheduling configuration comprises at least one semi-persistent scheduling, SPS, occasion in which the UE is scheduled to receive a downlink transmission from the BS, and the second semi-static scheduling configuration comprises at least one configured grant, CG, occasion in which the UE is scheduled to transmit an uplink transmission to the BS, wherein the at least one CG occasion at least partially overlaps in time with the at least one SPS occasion; the first semi-static scheduling configuration comprises at least one semi-persistent scheduling, SPS, occasion in which the UE is scheduled to receive a downlink transmission from the BS, and the second semi-static scheduling configuration comprises at least one configured grant, CG, occasion in which the UE is scheduled to transmit an uplink transmission to the BS, wherein the at least one CG occasion at least partially overlaps in time with the at least one SPS occasion; receiving a second control message comprising a dynamic grant that schedules a transmission associated with the UE that overwrites at least one of the downlink transmission in the at least one SPS occasion or the uplink transmission in the at least one CG occasion; and taking one or more actions, based on the dynamic grant, to communicate, with the BS, at least the transmission that overwrites the at least one of the downlink transmission in the at least one SPS occasion or the uplink transmission in the at least one CG occasion.
Mesoporous silica nanoparticles for the controlled release of active substances against a characteristic microorganism, where the silica nanoparticles are characterized by : - a size comprised between 100 nm to 1 μm and a pore size between 2 to 15 nm, and on the surface of these materials, sugar derivatives are functionalized by the use of alkoxysilane molecules that act as an anchor molecule for the formation of the covalent bond with the surface of the material; and the carbohydrate derivatives used contain saccharides from 3 to 20 units, and are functionalized on the surface of nanoparticles encapsulated with active substance; - the active substance is a volatile antibacterial and / or antifungal substance; and - the carbohydrate derivative is maltodextrin comprising 3 to 20 units of monosaccharides. - a size comprised between 100 nm to 1 μm and a pore size between 2 to 15 nm, and on the surface of these materials, sugar derivatives are functionalized by the use of alkoxysilane molecules that act as an anchor molecule for the formation of the covalent bond with the surface of the material; and the carbohydrate derivatives used contain saccharides from 3 to 20 units, and are functionalized on the surface of nanoparticles encapsulated with active substance; - the active substance is a volatile antibacterial and / or antifungal substance; and - the carbohydrate derivative is maltodextrin comprising 3 to 20 units of monosaccharides.
An epoxy resin composition comprising: (A) an epoxy resin; (B) an epoxy resin curing agent; and (C) a liquid acrylic resin, characterized in that said epoxy resin (A) is at least one liquid epoxy resin selected from the group consisting of a liquid bisphenol A-type epoxy resin, a liquid bisphenol F-type epoxy resin, a phenol novolac-type epoxy resin, a liquid naphthalene-type epoxy resin, a liquid aminophenol-type epoxy resin, a liquid hydrogenated bisphenol-type epoxy resin, a liquid alicyclic epoxy resin, a liquid alcohol ether-type epoxy resin, a liquid fluorene-type epoxy resin, and a diclycidyl ether compound of multifunctional phenols, and that said liquid acrylic resin (C) exhibits a weight-average molecular weight (Mw) of 2,000 to 20,000, a reactive functional group equivalent of 400 to 10,000 g/eq per one molecule, and a solvent content of not higher than 1% by mass. (A) an epoxy resin; (B) an epoxy resin curing agent; and (C) a liquid acrylic resin,
A crossbow correction device for correcting crossbow of a steel strip (S) by a magnetic force during conveyance, comprising: a plurality of electromagnets (57a-d; 67a-d) arranged in a strip width direction of the steel strip and facing each other so as to sandwich the steel strip in a strip thickness direction; a moving mechanism (53, 54; 63, 64) capable of moving the electromagnets relative to the steel strip; a controller configured to operate the moving mechanism, based on a current value flowing through the electromagnets; and a distance detector (58a-d; 67a-d) for detecting a distance between the steel strip and each of the electromagnets; wherein the controller is configured to apply current to the electromagnets; characterized in that the controller is configured, during the operation of correcting crossbow and before current is applied to the electromagnets, to operate the moving mechanism, based on a detection result of the distance detector, such as to move the electromagnets in the thickness direction of the steel strip. a plurality of electromagnets (57a-d; 67a-d) arranged in a strip width direction of the steel strip and facing each other so as to sandwich the steel strip in a strip thickness direction; a moving mechanism (53, 54; 63, 64) capable of moving the electromagnets relative to the steel strip; a controller configured to operate the moving mechanism, based on a current value flowing through the electromagnets; and a distance detector (58a-d; 67a-d) for detecting a distance between the steel strip and each of the electromagnets; wherein the controller is configured to apply current to the electromagnets; characterized in that the controller is configured, during the operation of correcting crossbow and before current is applied to the electromagnets, to operate the moving mechanism, based on a detection result of the distance detector, such as to move the electromagnets in the thickness direction of the steel strip.
Liquid composition comprising desPro 36 Exendin-4(1-39) -Lys 6 -NH 2 or/and a pharmacologically tolerable salt thereof and optionally at least one pharmaceutically acceptable excipient, characterized in that it contains methionine and is free of histidine.
A geo-fencing system , comprising: a base device configured to create a virtual fence around the base device that bounds a safe zone ; a wearable device initially located within the safe zone; and a processing system, contained in the base device and/or the wearable device, configured to execute a dynamic adaptive control algorithm that computes at least one operating parameter for at least one of the base device and the wearable device based on a dynamic and adaptive combination of distance measurements between the wearable device and the base device, each distance measurement being determined by the base device and the wearable device, wherein the processing system conveys the at least one operating parameter to the at least one of the base device and the wearable device, which employs the at least one operating parameter for operation and determination of subsequent distance measurements, characterized by the at least one operating parameter including at least one of a power amplification signal, and a power amplification level signal. a base device configured to create a virtual fence around the base device that bounds a safe zone ; a wearable device initially located within the safe zone; and a processing system, contained in the base device and/or the wearable device, configured to execute a dynamic adaptive control algorithm that computes at least one operating parameter for at least one of the base device and the wearable device based on a dynamic and adaptive combination of distance measurements between the wearable device and the base device, each distance measurement being determined by the base device and the wearable device, wherein the processing system conveys the at least one operating parameter to the at least one of the base device and the wearable device, which employs the at least one operating parameter for operation and determination of subsequent distance measurements, characterized by the at least one operating parameter including at least one of a power amplification signal, and a power amplification level signal.
Device for sampling, in particular for bulk materials, comprising a base to which a boom arm is movably connected, having a movably mounted probe at its free end, wherein the device is equipped with a boom arm drive and at least one drive shutdown sensor, wherein the base is movably connected to a drive bracket having attached a drive , which is connected to the boom arm , and wherein the bracket drive is supported by at least one deformable element fixed on the base , the drive shutdown sensor reads at least the extreme positions of the drive bracket and characterized in that the deformable element is a mechanical spring.
Horizontal adiabatic reactor for heterogeneous catalytic reactions, comprising: - a cylindrical outer shell , - an inlet for a flow of reagent gases and an outlet for a flow of gaseous products; - at least one basket containing at least one catalytic bed , said catalytic bed being positioned horizontally inside said reactor; characterized in that: - said reactor is configured in such a way that said gas flow crosses said at least one catalytic bed in a radial or axial-radial manner, wherein said at least one catalytic bed has an annular configuration and radial symmetry; and - said shell has a cover which can be opened and defines an opening and said basket can be extracted horizontally from said opening. - a cylindrical outer shell , - an inlet for a flow of reagent gases and an outlet for a flow of gaseous products; - at least one basket containing at least one catalytic bed , said catalytic bed being positioned horizontally inside said reactor; - said reactor is configured in such a way that said gas flow crosses said at least one catalytic bed in a radial or axial-radial manner, wherein said at least one catalytic bed has an annular configuration and radial symmetry; and - said shell has a cover which can be opened and defines an opening and said basket can be extracted horizontally from said opening.
A vehicle drive device comprising: a wheel bearing configured to support a wheel; a horizontally-mounted electric motor configured to rotate a rotating ring of the wheel bearing ; and an oil supply mechanism (K) configured to cool the electric motor with lubricating oil, wherein the electric motor includes a housing , a stator provided inside the housing , and a rotor configured to be rotatable with respect to the stator , the stator is composed of a stator core and a stator coil , the stator core has a plurality of teeth arranged in a circumferential direction around an axis of the rotor , and the stator coil is composed of a plurality of individual coils provided on the respective teeth , the oil supply mechanism (K) has a lubricating oil supply portion configured to supply lubricating oil onto coil ends of upper individual coils among the plurality of individual coils , and a lower portion of the stator is immersed in the lubricating oil accumulated in a bottom portion of the housing , a temperature detector configured to detect a temperature of the stator coil is disposed at a position that is lower than the axis (O) of the rotor and higher than an oil level of the lubricating oil accumulated in the bottom portion of the housing , wherein the temperature detector is located within a range of a gap between individual coils adjacent in the circumferential direction, except a portion between coil ends of the adjacent individual coils , and wherein a lower end of the rotor has a height such that the rotor , in a normal state, is not immersed in the lubricating oil accumulated in the bottom portion of the housing , and the rotor comes into contact with the lubricating oil when the oil level of the lubricating oil varies due to turning or abrupt acceleration/deceleration of a vehicle, and the temperature detector is disposed, in the housing , at a position on a side opposite to a side where the lower end of the rotor moves due to rotation of the rotor when the vehicle travels forward, with respect to the axis (O) of the rotor , such that scooped-up lubricating oil is not applied to the temperature detector .
A single-molecule guide RNA comprising at least a spacer sequence that is an RNA sequence corresponding to any of SEQ ID NOs: 9837, 10417, 9823, 9834, 10413, 10883, 7381, 10775, 10431, 9800, 8278, 9825, 10437, 10445, 9893, 9799, 7388, 7364, 8391, 10428, 10429, 9796, 7427, 9821, 7384, 9858, 9878, 9874, 9798, 7433, 7403, 7430, 9827, 10791, 10436, 9866, 8287, 10804, 9786, 10788, 7412, 10800, 7373, 9817, 7377, 9875, 8290, 7937, 9900, 10802, 9789, 7932, 10406, 9829, 10444, 7399, 7426, 10446, 10877, 7921, 7933, 10410, 10874, 7371, 7892, 7929, 7428, 9815, 7435, 9832, 7432, 7924, 7383, 10430, 10443, 9838, 10776, 10415, 7386, 10882, 9849, 10792, 9803, 7380, 9806, 7391, 9879, 9902, 10463, 9836, 7398, 7441, 9841, 9828, 7396, 9790, 10794, 7893, 7438, 9880, 9870, 9804, 7431, 7936, 9791, 7362, 9891, 9793, 9913, 10439, 10419, 9869, 9892, 7439, 7415, 7420, 9906, 9788, 9810, 9871, 10409, 8293, 7359, 7360, 9907, 9912, 7358, 9851, 9881, 9797, 7406, 9813, 7366, 9914, 9842, 7390, 10873, 7361, 9792, 9863, 7442, 9818, 9822, 9850, 9867, 7397, 7416, 9860, 9894, 9890, 10434, 7418, 9898, 7369, 9883, 9901, 9908, 7930, 7444, 7405, 9910, 7935, 7414, 7401, 9865, 7421, 9895, 7411, 9909, 9896, 9884, 9861, 7404, 9848, 10403, 9856, 10408, 9885, 9816, 7422, 7363, 9864, or 9846.
Ceramic thermoelement having two first and second regions or thermolegs which are each formed from a different material composition, are connected to each other electrically and can be connected to a measuring device which is configured for measuring the electrical voltage difference, which is caused as a result of the Seebeck effect, and the two regions or thermolegs are formed respectively from a boron carbide-metal carbide or boron carbide-metal boride composite material, wherein the proportions of boron carbide and metal carbide or metal boride in the respective composite material differ in the regions or thermolegs, characterised in that the metal carbide or metal boride is thereby contained in at least one region or thermoleg with a proportion in the composite material which is by max. 20% by mass less than the proportion achievable during percolation of the metal carbide or metal boride. the two regions or thermolegs are formed respectively from a boron carbide-metal carbide or boron carbide-metal boride composite material, wherein the proportions of boron carbide and metal carbide or metal boride in the respective composite material differ in the regions or thermolegs, characterised in that the metal carbide or metal boride is thereby contained in at least one region or thermoleg with a proportion in the composite material which is by max. 20% by mass less than the proportion achievable during percolation of the metal carbide or metal boride.
A patient interface (100; 451; 459) for delivering breathable gas to a patient for the treatment of sleep disordered breathing, the patient interface comprising: a sealing portion (210; 450) including a nose tip engagement portion (212; 352; 452) adapted to form a seal with the patient's nose tip, an upper lip engagement portion (213; 350; 462) adapted to form a seal with the patient's upper lip and/or base of the patient's nares, and nostril engagement flaps (214; 388) adapted to form a seal with the patient's nares, a supporting wall defining an air path, wherein the nose tip engagement portion, the upper lip engagement portion, and the nostril engagement flaps are all structured to curve outwardly from the supporting wall to outer edges of the sealing portion in a continuous, uninterrupted and smooth manner. a sealing portion (210; 450) including a nose tip engagement portion (212; 352; 452) adapted to form a seal with the patient's nose tip, an upper lip engagement portion (213; 350; 462) adapted to form a seal with the patient's upper lip and/or base of the patient's nares, and nostril engagement flaps (214; 388) adapted to form a seal with the patient's nares, a supporting wall defining an air path, wherein the nose tip engagement portion, the upper lip engagement portion, and the nostril engagement flaps are all structured to curve outwardly from the supporting wall to outer edges of the sealing portion in a continuous, uninterrupted and smooth manner.
An apparatus for controlled transport of articles along a path comprising: a plurality of articles ; a track that forms a closed loop path (P) for movers; a plurality of movers that are configured to transport articles, said movers being movably mounted on the track for moving along said closed loop path, said movers comprising a driven member that is oriented to be contacted by at least one drive element at any position along the path; a plurality of drive elements arranged along the track, said drive elements each comprising a surface that is oriented to contact the driven member of said movers, wherein said drive elements are configured to sequentially engage the driven member of said movers to provide controlled motion of said movers independently around said track, wherein the drive elements are each driven by a rotary motor ; and a programmable computer control system in communication with the rotary motors for controlling the motion of the rotary motors; characterized in that the plurality of drive elements comprise a combination of pinion gears and toothed timing belts wherein the pinion gears are arranged in regions along the path where controlled relative motion between the articles is desired and the toothed timing belts are arranged in regions where relative motion between articles is not needed during transport. a plurality of articles ; a track that forms a closed loop path (P) for movers; a plurality of movers that are configured to transport articles, said movers being movably mounted on the track for moving along said closed loop path, said movers comprising a driven member that is oriented to be contacted by at least one drive element at any position along the path; a plurality of drive elements arranged along the track, said drive elements each comprising a surface that is oriented to contact the driven member of said movers, wherein said drive elements are configured to sequentially engage the driven member of said movers to provide controlled motion of said movers independently around said track, wherein the drive elements are each driven by a rotary motor ; and a programmable computer control system in communication with the rotary motors for controlling the motion of the rotary motors; characterized in that the plurality of drive elements comprise a combination of pinion gears and toothed timing belts wherein the pinion gears are arranged in regions along the path where controlled relative motion between the articles is desired and the toothed timing belts are arranged in regions where relative motion between articles is not needed during transport.