mhurhangee/ep-ind-claims huggingface dataset:
Vehicle seat having a longitudinal adjustment device which comprises at least one rail guide (1 to 1 VII) with at least one upper rail (2 to 2 VII) and a lower rail (3 to 3 VII), wherein the upper rail (2 to 2 VII) and the lower rail (3 to 3 VII) are mounted movably in relation to one another via a bearing, characterized in that the bearing is in the form of a roller cage with rollers and is arranged between the upper rail (2 to 2 VII) and the lower rail (3 to 3 VII), wherein the rollers are arranged in the roller cage inclined at a predefined angle in relation to the horizontal plane of the rails (2 to 2 VII, 3 to 3 VII).
A method for information transmission, comprising: receiving, by a terminal device in a first slot or a first mini-slot, a first synchronization signal, SS, block and a first physical downlink control channel, PDCCH, sent by a network device, the first slot or the first mini-slot comprising N symbols, the first SS block occupying M consecutive symbols in the first slot or the first mini-slot, the first SS block comprising an SS and a physical broadcast channel, PBCH, wherein M and N are positive integers, and M≤N, wherein the symbols occupied by the first PDCCH are at least partially overlapped with the symbols occupied by the first SS block, and frequency domain resources occupied by the first PDCCH are non-overlapped with frequency domain resources occupied by the first SS block. receiving, by a terminal device in a first slot or a first mini-slot, a first synchronization signal, SS, block and a first physical downlink control channel, PDCCH, sent by a network device, the first slot or the first mini-slot comprising N symbols, the first SS block occupying M consecutive symbols in the first slot or the first mini-slot, the first SS block comprising an SS and a physical broadcast channel, PBCH, wherein M and N are positive integers, and M≤N, wherein the symbols occupied by the first PDCCH are at least partially overlapped with the symbols occupied by the first SS block, and frequency domain resources occupied by the first PDCCH are non-overlapped with frequency domain resources occupied by the first SS block.
A dehydration equipment in which a plurality of adsorption towers (62A, 62B) that alternately perform an adsorption process, in which water contained in gas is adsorbed, and a regeneration process, in which the adsorbed water is desorbed are provided in parallel in a gas supply line and a predetermined adsorption tower performs the adsorption process while the other adsorption tower performs the regeneration process, the dehydration equipment comprising: a heating unit that heats a portion of the gas dehydrated in the adsorption tower that is performing the adsorption process and supplies the gas to the adsorption tower that is performing the regeneration process; a cooling unit that cools the gas sent out from the adsorption tower that is performing the regeneration process; a gas-liquid separating unit that separates condensed water from the gas cooled by the cooling unit and returns the resulting gas after separating water therefrom to the adsorption tower; a preheating unit (76A, 76B) that performs heat exchange between the gas that has been sent out from the adsorption tower that is performing the regeneration process and will be supplied to the cooling unit and the gas that has been sent out from the adsorption tower that is performing the adsorption process and will be supplied to the heating unit; and a temperature detecting unit that detects a temperature of the gas supplied to the heating unit; characterized in that the heating unit controls the degree of the heating of the gas according to the amount of heat exchange performed by the preheating unit (76A, 76B), and the amount of the heat exchange is determined based on the temperature detected by the temperature detecting unit. a heating unit that heats a portion of the gas dehydrated in the adsorption tower that is performing the adsorption process and supplies the gas to the adsorption tower that is performing the regeneration process; a cooling unit that cools the gas sent out from the adsorption tower that is performing the regeneration process; a gas-liquid separating unit that separates condensed water from the gas cooled by the cooling unit and returns the resulting gas after separating water therefrom to the adsorption tower; a preheating unit (76A, 76B) that performs heat exchange between the gas that has been sent out from the adsorption tower that is performing the regeneration process and will be supplied to the cooling unit and the gas that has been sent out from the adsorption tower that is performing the adsorption process and will be supplied to the heating unit; and a temperature detecting unit that detects a temperature of the gas supplied to the heating unit; characterized in that the heating unit controls the degree of the heating of the gas according to the amount of heat exchange performed by the preheating unit (76A, 76B), and the amount of the heat exchange is determined based on the temperature detected by the temperature detecting unit.
Method for producing a composite element, characterized in that a first element with a recess is provided, which recess extends substantially along a longitudinal direction and has a cross section that is variable over the longitudinal direction with arrow-like shear cams, which are designed as recesses having wider and narrower regions along the longitudinal direction, after which a reinforcement is positioned in the recess, partly protruding from the recess, after which the recess is filled with curable material, in particular concrete, after which the curable material cures in the recess, forming a second element, so that the reinforcement is connected to the first element in form-fitting manner by the cured material, wherein a metal part formed by a steel clip is positioned in the recess, at least an area of which metal part is aligned at an angle of 45 degrees to 135 degrees, in particular 80 degrees to 100 degrees, relative to a longitudinal direction of the recess and is connected to bottom chords of the reinforcement, and extends into the wider regions of the shear cams, characterized in that the metal part formed by a steel clip partially extends along inclined lateral edges of the arrow-like shear cams, wherein inclined regions of the steel clip are connected by a part of steel clip that is aligned approximately normally to a longitudinal direction of the recess, so that a locally greater distance between the bottom chords is stabilised mechanically by means of the steel clip.
A sunflower plant, or part thereof, comprising the imidazolinone herbicide tolerance characteristics of line MUT31, a representative sample of seed of said MUT31 line having been deposited under ATCC Patent Deposit No. PTA-7839, wherein the imidazolinone herbicide tolerance of MUT31 is reducible or inhibitable by malathion; wherein said sunflower plant is selected from the group consisting of: (a) sunflower plants that are progeny of MUT31; (b) sunflower plants that are mutants, recombinants, or genetically engineered derivatives of MUT31; and (c) sunflower plants that are progeny of any one of (a)-(b); wherein said sunflower plant comprises at least one herbicide-tolerant AHASL gene that encodes an herbicide-tolerant AHASL protein; and wherein said herbicide tolerance characteristics of line MUT31 are capable of enhancing the imidazolinone herbicide tolerance of a herbicide-tolerant sunflower plant that comprises one or more herbicide-tolerant AHASL proteins. (a) sunflower plants that are progeny of MUT31; (b) sunflower plants that are mutants, recombinants, or genetically engineered derivatives of MUT31; and (c) sunflower plants that are progeny of any one of (a)-(b);
A print head for additive manufacturing, comprising: at least two hobs suitable to receive and extrude therebetween a filament of print material for the additive manufacturing; a material guide suitable to receive the extruded filament of print material; at least one heater element coupled to a transition point along the material guide distally from the at least two hobs, wherein the transition point comprises an at least partial liquefication of the print material within the material guide by the at least one heater element to allow for printing of the at least partially liquefied print material; and at least one secondary heater at least partially about an upper aspect of the transition point and suitable to at least heat the upper aspect upon a clog in the material guide to liquefy the clog, characterized in that the secondary heater additionally comprises cooling hardware, which is configured to be selectively actuated. at least two hobs suitable to receive and extrude therebetween a filament of print material for the additive manufacturing; a material guide suitable to receive the extruded filament of print material; at least one heater element coupled to a transition point along the material guide distally from the at least two hobs, wherein the transition point comprises an at least partial liquefication of the print material within the material guide by the at least one heater element to allow for printing of the at least partially liquefied print material; and at least one secondary heater at least partially about an upper aspect of the transition point and suitable to at least heat the upper aspect upon a clog in the material guide to liquefy the clog, characterized in that the secondary heater additionally comprises cooling hardware, which is configured to be selectively actuated.
A method for preparing a decellularized tissue product comprising a reduced pressure step of bringing an animal-derived lyophilized decellularized tissue material and a liquid into contact under a reduced pressure condition and a pressurized step of bringing the same into contact under a pressurized condition subsequent to the reduced pressure step, wherein the animal-derived lyophilized decellularized tissue material is a tissue selected from a group comprising cornea, cardiac valve, blood vessel, skin, cartilage, tendon, muscle, urinary bladder, small intestine, heart, liver, lung, trachea, esophagus, crystal lens, vitreous body, retina, nerve, fat tissue, brain, dura mater, pleural membranes, diaphragm, urinary duct, kidney, pancreas, gallbladder, gingiva, periodontal membrane, tooth, placenta, and reproductive organs, and, wherein the pressurized condition is 10,135.5 Pa (0.1 atmospheres) to 1013.25 MPa (10,000 atmospheres) above atmospheric pressure.
A method, performed by a base station, said method comprising: transmitting a first downlink control information, DCI, message to a first user equipment, UE, scheduling a first plurality of uplink transmissions to the first UE, wherein the uplink transmissions of the first plurality of uplink transmissions are scheduled to be contiguous in time, wherein the first plurality of uplink transmissions is scheduled on unlicensed spectrum, the first DCI message including: added bits to carry respective configurations, including respective new data indicators and respective redundancy versions, for respective uplink transmissions of the first plurality of uplink transmissions; and an indication of an offset from the first DCI to a first uplink transmission of the first plurality of uplink transmissions. transmitting a first downlink control information, DCI, message to a first user equipment, UE, scheduling a first plurality of uplink transmissions to the first UE, wherein the uplink transmissions of the first plurality of uplink transmissions are scheduled to be contiguous in time, wherein the first plurality of uplink transmissions is scheduled on unlicensed spectrum, the first DCI message including: added bits to carry respective configurations, including respective new data indicators and respective redundancy versions, for respective uplink transmissions of the first plurality of uplink transmissions; and an indication of an offset from the first DCI to a first uplink transmission of the first plurality of uplink transmissions.
A method for binding a Multimedia Broadcast/Multicast Service, MBMS, bearer to a communication group in a 3 rd Generation Partnership Project, 3GPP, compliant system, the method performed by an infrastructure device coupled to the 3GPP compliant system, the 3GPP compliant system having a radio access network partitioned into a plurality MBMS service areas (126, 128, 130, 132), wherein each MBMS service area (126, 128, 130, 132) has a plurality of MBMS bearers established for transporting media streams, the method comprising: receiving a request to transmit a media stream to a communication group, wherein the request to transmit is received after the MBMS bearers were established; determining a MBMS bearer, of the MBMS bearers established before receiving the request, in a MBMS service area (126, 130) serving one or more members of the communication group, to assign to transport the media stream; generating a MBMS connect message that binds the communication group to the assigned MBMS bearer, wherein the MBMS connect message includes an identifier for the communication group and an identifier for the assigned MBMS bearer; sending the MBMS connect message to the members of the communication group; transmitting the media stream to the members of the communication group over the assigned MBMS bearer. receiving a request to transmit a media stream to a communication group, wherein the request to transmit is received after the MBMS bearers were established; determining a MBMS bearer, of the MBMS bearers established before receiving the request, in a MBMS service area (126, 130) serving one or more members of the communication group, to assign to transport the media stream; generating a MBMS connect message that binds the communication group to the assigned MBMS bearer, wherein the MBMS connect message includes an identifier for the communication group and an identifier for the assigned MBMS bearer; sending the MBMS connect message to the members of the communication group; transmitting the media stream to the members of the communication group over the assigned MBMS bearer.
A wavelength conversion module, comprising: a substrate, having a rough surface comprising two first regions and a second region, wherein the second region is located between the two first regions in a radial direction on the substrate; and a wavelength conversion layer, located on the substrate and comprising a wavelength conversion material, a bonding material and a plurality of diffuse reflection particles, wherein the wavelength conversion material is distributed in the bonding material, the plurality of diffuse reflection particles are located on the rough surface of the substrate, and the plurality of diffuse reflection particles are located between the wavelength conversion material and the substrate, and wherein a second density of the plurality of diffuse reflection particles in the second region is greater than a first density of the plurality of diffuse reflection particles in one of the two first regions. a substrate, having a rough surface comprising two first regions and a second region, wherein the second region is located between the two first regions in a radial direction on the substrate; and a wavelength conversion layer, located on the substrate and comprising a wavelength conversion material, a bonding material and a plurality of diffuse reflection particles, wherein the wavelength conversion material is distributed in the bonding material, the plurality of diffuse reflection particles are located on the rough surface of the substrate, and the plurality of diffuse reflection particles are located between the wavelength conversion material and the substrate, and wherein a second density of the plurality of diffuse reflection particles in the second region is greater than a first density of the plurality of diffuse reflection particles in one of the two first regions.
A method, comprising the steps of: receiving, at a cross domain server configured to receive calls to at least one predetermined phone number, a call setup message for a call from a subscriber outside of a packet-switched network, wherein the cross domain server is a member of the packet-switched network; wherein the cross domain server acts as a service control point; performing an action in the packet-switched network, by the cross domain server, on behalf of the subscriber and based on the call; wherein the action is performed in the packet-switched network without establishment of a bearer channel in the packet-switched network for the call; and disconnecting the call; wherein the step of disconnecting comprises the step of: disconnecting the call without establishment of a bearer channel, associated with the call, in the packet-switched network or a circuit-switched network associated with the call. receiving, at a cross domain server configured to receive calls to at least one predetermined phone number, a call setup message for a call from a subscriber outside of a packet-switched network, wherein the cross domain server is a member of the packet-switched network; wherein the cross domain server acts as a service control point; performing an action in the packet-switched network, by the cross domain server, on behalf of the subscriber and based on the call; wherein the action is performed in the packet-switched network without establishment of a bearer channel in the packet-switched network for the call; and disconnecting the call; wherein the step of disconnecting comprises the step of: disconnecting the call without establishment of a bearer channel, associated with the call, in the packet-switched network or a circuit-switched network associated with the call. disconnecting the call without establishment of a bearer channel, associated with the call, in the packet-switched network or a circuit-switched network associated with the call.
A method, by a receiver in a wireless communication network, of estimating IQ imbalance in a received wireless communication signal having a predetermined bandwidth, comprising: frequency dividing the received signal into a plurality of sub-bands wherein frequency dividing the received signal into a plurality of sub-bands comprises dividing the received signal into a first sub-band located at the center frequency of the signal bandwidth, a pair of second sub-bands adjacent to and flanking the first sub-band, and one or more successive pairs of sub-bands, each frequency-adjacent to a prior pair of sub-bands; receiving frequency-continuous, time-spaced block-type reference signals in the first sub-band; estimating IQ imbalance and carrier frequency offset in the first sub-band of the received signal based on the block-type reference signals; receiving data and time- and frequency-spaced comb-type reference signals in all sub-bands; estimating the phase noise and channel coefficients in the first sub-band of the received signal based on the comb-type reference signals in the first sub-band, the estimated IQ imbalance and estimated carrier frequency offset; and iteratively estimating IQ imbalance in successive sub-bands of the received signal based on the carrier frequency offset estimate and the phase noise and IQ imbalance estimates from prior sub-bands. frequency dividing the received signal into a plurality of sub-bands wherein frequency dividing the received signal into a plurality of sub-bands comprises dividing the received signal into a first sub-band located at the center frequency of the signal bandwidth, a pair of second sub-bands adjacent to and flanking the first sub-band, and one or more successive pairs of sub-bands, each frequency-adjacent to a prior pair of sub-bands; receiving frequency-continuous, time-spaced block-type reference signals in the first sub-band; estimating IQ imbalance and carrier frequency offset in the first sub-band of the received signal based on the block-type reference signals; receiving data and time- and frequency-spaced comb-type reference signals in all sub-bands; estimating the phase noise and channel coefficients in the first sub-band of the received signal based on the comb-type reference signals in the first sub-band, the estimated IQ imbalance and estimated carrier frequency offset; and iteratively estimating IQ imbalance in successive sub-bands of the received signal based on the carrier frequency offset estimate and the phase noise and IQ imbalance estimates from prior sub-bands.
A non-therapeutic use of collagen peptide for maintaining a filling effect of a hyaluronic acid filler, wherein the collagen peptide is administered to a subject after the hyaluronic acid filler is administered to the subject, and wherein the collagen peptide comprises a Gly-X-Y collagen tripeptide, preferably, the X and the Y are the same or different amino acids and the amino acid is selected from a group consisting of glycine (Gly), alanine (Ala), valine (Val), leucine (Leu), isoleucine (Ile), threonine (Thr), serine (Ser), cysteine (Cys), methionine (Met), aspartic acid (Asp), asparagine (Asn), glutamic acid (Glu), glutamine (Gln), lysine (Lys), arginine (Arg), histidine (His), phenylalanine (Phe), tyrosine (Tyr), tryptophan (Trp) and proline (Pro), more preferably, the X is proline and the Y is hydroxyproline. effect of a hyaluronic acid filler, wherein the collagen peptide is administered to a subject after the hyaluronic acid filler is administered to the subject, and wherein the collagen peptide comprises a Gly-X-Y collagen tripeptide, preferably, the X and the Y are the same or different amino acids and the amino acid is selected from a group consisting of glycine (Gly), alanine (Ala), valine (Val), leucine (Leu), isoleucine (Ile), threonine (Thr), serine (Ser), cysteine (Cys), methionine (Met), aspartic acid (Asp), asparagine (Asn), glutamic acid (Glu), glutamine (Gln), lysine (Lys), arginine (Arg), histidine (His), phenylalanine (Phe), tyrosine (Tyr), tryptophan (Trp) and proline (Pro), more preferably, the X is proline and the Y is hydroxyproline.
Method of manufacturing a shoe upper for a sports shoe, comprising the steps: a. Providing a carrier layer; b. Arranging multiple yarns (5a, 5b) on the carrier layer, such that the multiple yarns (5a, 5b) essentially define the shape of the shoe upper, wherein a first yarn is arranged in a first layer and a second yarn is arranged in a second layer at least partially on top of each other; c. Sewing at least one of the multiple yarns (5a, 5b) to the carrier layer; and d. Arranging at least one reinforcing element between the first layer and the second layer; and e. Dissolving the carrier layer, such that the shoe upper is formed essentially by the multiple yarns (5a, 5b). a. Providing a carrier layer; b. Arranging multiple yarns (5a, 5b) on the carrier layer, such that the multiple yarns (5a, 5b) essentially define the shape of the shoe upper, wherein a first yarn is arranged in a first layer and a second yarn is arranged in a second layer at least partially on top of each other; c. Sewing at least one of the multiple yarns (5a, 5b) to the carrier layer; and d. Arranging at least one reinforcing element between the first layer and the second layer; and e. Dissolving the carrier layer, such that the shoe upper is formed essentially by the multiple yarns (5a, 5b).