mhurhangee/patent-ind-claim-en huggingface dataset:
A stand alone input device , comprising; a wedge-shaped base having edges defining an opening and an inner cavity, the wedge-shaped base being configured to rest on an exterior supporting surface; a touch stack comprising: a touch plate having an exterior surface and an interior surface, the touch plate configured to accept a touch input for a host computing device associated with the stand alone input device , a raised trim portion surrounding the opening and a perimeter of the touch plate and the inner cavity, and an L-shaped attraction plate bonded to the interior surface of the touch plate and including an extended portion configured to extend into the inner cavity proximate to a haptic engine including an actuator included in the inner cavity of the wedge-shaped base , wherein the wedge-shaped base further comprises a pair of cantilevered beams positioned within the inner cavity and configured to deliver a force from the touch input to sensors within the wedge-shaped base and that operate to couple the touch stack to the wedge-shaped base , wherein the touch plate is inclined at an angle with respect to a bottom surface of the wedge-shaped base and is capable of moving toward the bottom surface in response to a force (F) applied thereto. a touch plate having an exterior surface and an interior surface, the touch plate configured to accept a touch input for a host computing device associated with the stand alone input device , a raised trim portion surrounding the opening and a perimeter of the touch plate and the inner cavity, and an L-shaped attraction plate bonded to the interior surface of the touch plate and including an extended portion configured to extend into the inner cavity proximate to a haptic engine including an actuator included in the inner cavity of the wedge-shaped base ,
Carrier for mounting a vehicle device for a motor vehicle, with a main structure , the main structure being formed from plastic, and with at least one attachment point for arranging the vehicle device on the carrier , an insert element made from metal for absorbing forces in a crash scenario being received in an edge region of the main structure , and the insert element being surrounded by the plastic of the main structure , the insert element having a plurality of recesses , by way of which a weight reduction and at the same time a penetration of the insert elements with the plastic of the main structure are achieved, characterized in that the insert element has in each case one holder at two ends which face away from one another in the longitudinal direction, the holder being connected to a connecting device of the carrier .
A composition comprising: (A) an acrylic acid derivative represented by Formula (I) : wherein R a represents alkyl, cycloalkyl, fluoroalkyl, fluorocycloalkyl, aryl that may have one or more substituents, or hydrogen; and (B) aldehyde, wherein the content of acrylic acid derivative (A) is 30%(w/w) or more, wherein the amount of aldehyde (B) is 0.05 mol or less, per mol of acrylic acid derivative (A), and wherein the aldehyde is selected from the group consisting of acetaldehyde, n-propylaldehyde, isopropylaldehyde, n-butylaldehyde, isobutylaldehyde, pivalaldehyde, n-pentylaldehyde, n-hexylaldehyde, n-heptylaldehyde, n-octylaldehyde, nonylaldehyde, decylaldehyde, undecylaldehyde, dodecylaldehyde, tridecylaldehyde, benzaldehyde, o-anisaldehyde, m-anisaldehyde, p-anisaldehyde, o-tolualdehyde, m-tolualdehyde, and p-tolualdehyde. (A) an acrylic acid derivative represented by Formula (I) : wherein R a represents alkyl, cycloalkyl, fluoroalkyl, fluorocycloalkyl, aryl that may have one or more substituents, or hydrogen; and (B) aldehyde,
A method for separating particles by size, the method comprising: flowing larger particles and smaller particles in a flow stream in a line-driven capillary located just prior to a sample inlet of a flow cytometer; directing radial acoustic radiation pressure to the flow stream to transport the larger particles that are cells to a central axis of the flow stream while the smaller particles that are cellular debris remain unaffected such that the smaller particles remain randomly distributed, said radial acoustic radiation pressure providing an acoustic force large enough to overcome the Brownian motion of the larger particles, thereby acoustically separating the particles by size; and feeding a central core of the flow stream comprising the larger particles of the separated particles into a flow cytometer. flowing larger particles and smaller particles in a flow stream in a line-driven capillary located just prior to a sample inlet of a flow cytometer; directing radial acoustic radiation pressure to the flow stream to transport the larger particles that are cells to a central axis of the flow stream while the smaller particles that are cellular debris remain unaffected such that the smaller particles remain randomly distributed, said radial acoustic radiation pressure providing an acoustic force large enough to overcome the Brownian motion of the larger particles, thereby acoustically separating the particles by size; and feeding a central core of the flow stream comprising the larger particles of the separated particles into a flow cytometer.
A tobacco plant, or plant part thereof, comprising a mutation in a gene encoding a CYP82E10 nicotine demethylase, wherein said mutation is in a gene encoding a CYP82E10 nicotine demethylase which comprises an amino acid sequence having at least 98% sequence identity to SEQ ID NO:2, 5, 6, 7, 8, or 9, said mutation results in a modification of the amino acid sequence of said CYP82E10 nicotine demethylase at an amino acid residue corresponding to position 79, 107 or 419 of SEQ ID NO: 2, or any combination thereof, and wherein said mutation results in reduced expression or function of said CYP82E10 nicotine demethylase.
An electronic cigarette atomizer, comprising an electronic cigarette liquid storage chamber for storing electronic cigarette liquid, and an atomization assembly for absorbing the electronic cigarette liquid from the electronic cigarette liquid storage chamber and atomizing the electronic cigarette liquid, wherein the atomization assembly comprises a porous body for conducting the electronic cigarette liquid, and a heating element for atomizing the electronic cigarette liquid; the porous body comprises an electronic cigarette liquid absorption surface in contact with the electronic cigarette liquid and the porous body further comprises an atomization surface; the heating element is provided on the atomization surface; wherin the electronic cigarette liquid absorption surface is provided with a plurality of blind holes and/or grooves (30a, 30 b) extending along the electronic cigarette liquid absorption surface towards the atomization surface ; characterized in that an aperture of each blind hole is 50 to 500 μm; and/or, a width of each groove is 50 to 500 μm. an aperture of each blind hole is 50 to 500 μm; and/or, a width of each groove is 50 to 500 μm.
A method of performing initial access by a user equipment in a wireless communication system, the method comprising: receiving (S1105), from a base station, configuration information representing one or more physical random access channel, PRACH, configurations, receiving (S1 110), from the base station, downlink control information comprising information representing a specific PRACH configuration among the one or more PRACH configurations, through a physical downlink control channel, and transmitting (S1 115), to the base station, at least one of data or a preamble related to the initial access through a PRACH, based on the specific PRACH configuration, wherein the one or more PRACH configurations are configured based on pre-configured types, wherein each of the pre-configured types represents a structure related to the PRACH, and, wherein the pre-configured types are configured based on i) whether the structure includes preamble region only or the preamble region and data region, and ii) the position of the preamble region in association with the data region. receiving (S1105), from a base station, configuration information representing one or more physical random access channel, PRACH, configurations, receiving (S1 110), from the base station, downlink control information comprising information representing a specific PRACH configuration among the one or more PRACH configurations, through a physical downlink control channel, and transmitting (S1 115), to the base station, at least one of data or a preamble related to the initial access through a PRACH, based on the specific PRACH configuration, wherein the one or more PRACH configurations are configured based on pre-configured types, wherein each of the pre-configured types represents a structure related to the PRACH, and, wherein the pre-configured types are configured based on i) whether the structure includes preamble region only or the preamble region and data region, and ii) the position of the preamble region in association with the data region.
An immunoconjugate having the formula Ig-(L-D)n, wherein: (a) Ig is a dual variable domain immunoglobulin molecule, or an antigen-binding fragment thereof, wherein the dual variable domain immunoglobulin molecule comprises: (i) a first variable domain that binds to a binding target; and (ii) a second variable domain that comprises a reactive residue; (b) L is a linker that is covalently conjugated to the reactive residue of the second variable domain of lg; (c) D is a drug moiety; and (d) n is selected from an integer from 1 to 12. (a) Ig is a dual variable domain immunoglobulin molecule, or an antigen-binding fragment thereof, wherein the dual variable domain immunoglobulin molecule comprises: (i) a first variable domain that binds to a binding target; and (ii) a second variable domain that comprises a reactive residue; (i) a first variable domain that binds to a binding target; and (ii) a second variable domain that comprises a reactive residue; (b) L is a linker that is covalently conjugated to the reactive residue of the second variable domain of lg; (c) D is a drug moiety; and (d) n is selected from an integer from 1 to 12.
A compressor , which is a hermetic compressor suitable to be used in cooling devices, comprising a casing ; a cylinder which is arranged in the casing and which enables the refrigerant to be sucked and pumped; a piston which operates in the cylinder; a body which supports the cylinder and the piston; a cylinder head that enables the refrigerant sucked and pumped by means of the movement of the piston to be guided; a valve plate which is disposed between the cylinder and the cylinder head ; and a vibration tube which provides the discharge of the refrigerant, a terminal member having an opening which is suitable for fitting the vibration tube and a protrusion at the part where the terminal member is placed into the cylinder head , and the cylinder head having a stepped housing suitable for fitting the protrusion , wherein the terminal member is placed characterized by a channel which enables the vibration tube to be mounted to the cylinder head more firmly.
Method for controlling a combination which accompanies a harvesting machine and consists of a tractor and a trailer which is pulled by the tractor and onto which the harvesting machine at least temporarily loads crops by means of a loading device , the harvesting machine transmitting a first control signal using a first transmitting device (S300) in order to influence a relative position of the trailer relative to the harvesting machine , characterized in that the trailer receives the first control signal using a first receiving device (S310) and, depending on the first control signal, transmits a second control signal containing speed information using a second transmitting device (S320), the tractor receiving the second control signal using a second receiving device (S330) and then adjusting its actual speed in accordance with the speed information (S340).
A surgical robotic drape for enveloping a portion of a surgical robot to define a sterile boundary thereover, the surgical robot comprising an instrument comprising three joints, and a robotic arm comprising a drive assembly configured to provide linear mechanical drive for selectively actuating the three joints, the instrument and drive assembly each having a plurality of interfaces for coupling linear mechanical drive from the drive assembly to the instrument, the drape comprising: a planar portion ; and the drape comprising: at least three pockets each comprising a plurality of interface elements (811-821), each pocket configured to engage with both a drive assembly interface and an instrument interface to couple the drive assembly to the instrument to thereby transfer linear mechanical drive provided by the drive assembly through the drape in a direction parallel to the planar extent of the drape to selectively actuate a respective joint of the instrument , the plurality of interface elements (811-821) being attached to the material of the drape in a spatial arrangement so that each interface element is separated from each of the other interface elements by the material of the drape, each of the interface elements configured to act as reinforcement structures to the material of the drape.
A roll-to-plate process for texturing or patterning discrete substrates with a flexible stamp having a Young's Modulus of between 0.1 GPa and 10 GPa, such as displays, lighting or solar panels comprising the steps of supplying an imprinting lacquer , texturing or patterning the imprinting lacquer with an imprint texture which imprint texture is formed by openings and elevations thus creating volumes in the imprint texture to obtain an imprinted lacquer and optionally followed by curing the imprinted lacquer to obtain a solidified textured or patterned layer , characterized in that the texturing or patterning is performed with an imprint texture that comprises a plurality of reservoir openings and reservoir elevations forming domains of greater volumes at at least one of its edges.
A communication system, comprising: a media server configured to receive a plurality of audio streams from a corresponding plurality of client devices, the media server including circuitry configured to: rank the plurality of audio streams based on a predetermined metric; wherein the metric for an audio stream comprises a weighted energy of a frame of the audio stream; wherein the weighted energy of the frame of the audio stream is determined using a weighting function which de-emphasizes spectral frequency content with a frequency below 1000 Hz and which emphasizes spectral frequency content with a frequency above 4000 Hz, group a first portion of the plurality of audio streams into a first set, the first portion of the plurality of audio streams being the N highest-ranked audio streams, group a second portion of the plurality of audio streams into a second set, the second portion of the plurality of audio streams being the M lowest-ranked audio streams, forward respective audio streams of the first set to a receiver device, and discard respective audio streams of the second set, wherein N and M are independent integers. a media server configured to receive a plurality of audio streams from a corresponding plurality of client devices, the media server including circuitry configured to: rank the plurality of audio streams based on a predetermined metric; wherein the metric for an audio stream comprises a weighted energy of a frame of the audio stream; wherein the weighted energy of the frame of the audio stream is determined using a weighting function which de-emphasizes spectral frequency content with a frequency below 1000 Hz and which emphasizes spectral frequency content with a frequency above 4000 Hz, group a first portion of the plurality of audio streams into a first set, the first portion of the plurality of audio streams being the N highest-ranked audio streams, group a second portion of the plurality of audio streams into a second set, the second portion of the plurality of audio streams being the M lowest-ranked audio streams, forward respective audio streams of the first set to a receiver device, and discard respective audio streams of the second set, rank the plurality of audio streams based on a predetermined metric; wherein the metric for an audio stream comprises a weighted energy of a frame of the audio stream; wherein the weighted energy of the frame of the audio stream is determined using a weighting function which de-emphasizes spectral frequency content with a frequency below 1000 Hz and which emphasizes spectral frequency content with a frequency above 4000 Hz, group a first portion of the plurality of audio streams into a first set, the first portion of the plurality of audio streams being the N highest-ranked audio streams, group a second portion of the plurality of audio streams into a second set, the second portion of the plurality of audio streams being the M lowest-ranked audio streams, forward respective audio streams of the first set to a receiver device, and discard respective audio streams of the second set, wherein N and M are independent integers.
A low-ice-adhesion material comprising: a substantially continuous matrix containing a first component; and a plurality of discrete inclusions containing a second component, wherein said inclusions are dispersed within said matrix to form a phase-separated microstructure that is inhomogeneous on an average length scale of phase inhomogeneity from about 0.1 microns to about 500 microns, wherein one of said first component or said second component is a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2 , and the other of said first component or said second component is a hygroscopic material, wherein said continuous matrix and said inclusions form a material surface with said phase inhomogeneity that results in low ice adhesion of said material, characterized in that said material surface, when subjected to an AMII, Centrifuge Ice Adhesion Test, generates an AMII, Centrifuge Ice Adhesion Reduction Factor of about 10 or more; wherein said low-surface-energy polymer is a fluoropolymer; and wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof. a substantially continuous matrix containing a first component; and a plurality of discrete inclusions containing a second component, wherein said inclusions are dispersed within said matrix to form a phase-separated microstructure that is inhomogeneous on an average length scale of phase inhomogeneity from about 0.1 microns to about 500 microns, wherein one of said first component or said second component is a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2 , and the other of said first component or said second component is a hygroscopic material, wherein said continuous matrix and said inclusions form a material surface with said phase inhomogeneity that results in low ice adhesion of said material, characterized in that said material surface, when subjected to an AMII, Centrifuge Ice Adhesion Test, generates an AMII, Centrifuge Ice Adhesion Reduction Factor of about 10 or more; wherein said low-surface-energy polymer is a fluoropolymer; and wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof.
Method of coating metal parts comprising: - providing a metal part from a first metal material, - applying a foil made of a second metal material on the metal part in a bearing area , - irradiating the foil applied on the metal part in at least a portion of the bearing area with a laser , wherein the bearing area of the metal part comprises a hole and is at least partially a screw on area, - materially bonding the applied foil with the metal part in the bearing area, characterized by - evaporating the foil by the laser in the area of the hole. - providing a metal part from a first metal material, - applying a foil made of a second metal material on the metal part in a bearing area , - irradiating the foil applied on the metal part in at least a portion of the bearing area with a laser , wherein the bearing area of the metal part comprises a hole and is at least partially a screw on area, - materially bonding the applied foil with the metal part in the bearing area, characterized by - evaporating the foil by the laser in the area of the hole.
Factor I, or a derivative of Factor I that has at least 90% amino acid identity across the entire length of the sequence with native Factor I and that retains C3b-inactivating and iC3b-degradation activity, for use in the prevention, treatment, or amelioration of Age-related Macular Degeneration (AMD), at a dosage that increases the level of C3b-inactivating and iC3b-degradation activity in a subject to a level that exceeds a normal level of C3b-inactivating and iC3b-degradation activity, wherein a normal level of C3b-inactivating and iC3b-degradation activity is provided by Factor I in the range 30-40 μg/ml Factor I in a subject's plasma.