mhurhangee/patent-ind-claim-en huggingface dataset:
A tire comprising a bead member having a bead core and a bead filler located at an outer side of the bead core in a tire radial direction, wherein the bead filler is formed of a resin composition, which comprises a thermoplastic resin and a thermoplastic elastomer, of which a Tan δ curve obtained by viscoelasticity measurement has at least two peaks, or at least one peak having one or more shoulders, and which has a tensile elastic modulus of from 400 to 1100 MPa, characterized in that the thermoplastic resin is a polyester-based thermoplastic resin and the thermoplastic elastomer is a polyester-based thermoplastic elastomer, wherein the viscoelasticity measurement is obtainable by subjecting a test piece having a width of 6 mm, a length of 38 mm, and a thickness of 2 mm to a torsion test mode at a measurement gap of 20 mm with a viscoelasticity measurement apparatus (ARES-G2) manufactured by TA Instruments, under conditions of a range of from -100°C to 150°C, a strain of 0.28%, and 35 Hz, wherein tensile elastic modulus is measured according to JIS K7113: 1995 wherein the bead filler is formed of a resin composition, which comprises a thermoplastic resin and a thermoplastic elastomer, of which a Tan δ curve obtained by viscoelasticity measurement has at least two peaks, or at least one peak having one or more shoulders, and which has a tensile elastic modulus of from 400 to 1100 MPa, characterized in that the thermoplastic resin is a polyester-based thermoplastic resin and the thermoplastic elastomer is a polyester-based thermoplastic elastomer, wherein the viscoelasticity measurement is obtainable by subjecting a test piece having a width of 6 mm, a length of 38 mm, and a thickness of 2 mm to a torsion test mode at a measurement gap of 20 mm with a viscoelasticity measurement apparatus (ARES-G2) manufactured by TA Instruments, under conditions of a range of from -100°C to 150°C, a strain of 0.28%, and 35 Hz, wherein tensile elastic modulus is measured according to JIS K7113: 1995
A pulley decoupler for transferring drive torque from the belt of an accessories belt drive to the shaft of one of the accessories, having: - a pulley , - a hub to be mounted on the shaft - and a series connection arranged in the drive torque flow between the pulley and the hub , of a wrap-around belt as a one-way clutch and a helical torsion spring which extend in the direction of the rotational axis of the pulley decoupler , wherein the helical torsion spring expands radially while transferring the drive torque and its ends come in contact with an axially rising, ramp-like spring support surface of a first spring plate and a second spring plate , characterised in that the wrap-around belt is arranged radially between the pulley and the helical torsion spring , and the wrap-around belt ends thereof expand radially while transferring the drive torque, wherein the first wrap-around belt end running in the drive torque flow on the pulley side, is braced against an inner casing rotationally fixed in the pulley and wherein the second wrap-around belt end running in the drive torque flow on the helical torsion spring side, is braced against the inner casing of an outer ring of the first spring plate , which is formed as a sheet metal part with a rim and the spring support surface formed thereon and on the outer casing of the outer ring is rotatably mounted in the pulley . - a pulley , - a hub to be mounted on the shaft - and a series connection arranged in the drive torque flow between the pulley and the hub , of a wrap-around belt as a one-way clutch and a helical torsion spring which extend in the direction of the rotational axis of the pulley decoupler , wherein the helical torsion spring expands radially while transferring the drive torque and its ends come in contact with an axially rising, ramp-like spring support surface of a first spring plate and a second spring plate , characterised in that the wrap-around belt is arranged radially between the pulley and the helical torsion spring , and the wrap-around belt ends thereof expand radially while transferring the drive torque, wherein the first wrap-around belt end running in the drive torque flow on the pulley side, is braced against an inner casing rotationally fixed in the pulley and wherein the second wrap-around belt end running in the drive torque flow on the helical torsion spring side, is braced against the inner casing of an outer ring of the first spring plate , which is formed as a sheet metal part with a rim and the spring support surface formed thereon and on the outer casing of the outer ring is rotatably mounted in the pulley .
A method of placing a node in a wireless communication network into a standby mode, said node comprising a plurality of antennae , a primary radio and a secondary radio wherein said primary radio and said secondary radio share at least two of said plurality of antennae , said node further comprising a Radio Frequency, RF, switch arranged to connect said secondary radio to any one of said at least two shared antennae , wherein said primary radio is arranged to operate within a first frequency band, and wherein said secondary radio is arranged to operate within a second frequency band, wherein said second frequency band is a sub-band of said first frequency band, said method comprising the steps of: - receiving , by said primary radio , via said plurality of antennae , a packet; - determining , by said primary radio , for each of said shared antennae separately, a signal quality indicator of said second frequency band corresponding to said received packet; - selecting , by said primary radio , one of said shared antennae based on said determined signal quality indicators by controlling said RF switch such that said selected antenna connects to said secondary radio ; - placing said node in a standby mode, characterised in that , in said standby mode, said secondary radio is arranged to listen to an activation signal in said second frequency band through said connected antenna for activating said node and further wherein, in said standby mode, said primary radio does not transmit or receive any packets nor senses a channel state. - receiving , by said primary radio , via said plurality of antennae , a packet; - determining , by said primary radio , for each of said shared antennae separately, a signal quality indicator of said second frequency band corresponding to said received packet; - selecting , by said primary radio , one of said shared antennae based on said determined signal quality indicators by controlling said RF switch such that said selected antenna connects to said secondary radio ; - placing said node in a standby mode,
A thermoplastic resin comprising a spatial structural component unit derived from a diol compound represented by one of the following formulae: or wherein Ar 1 and Ar 2 each independently an aromatic group optionally containing a substituent, L 1 and L 2 each independently represent a divalent linking group, m and n each independently represent 0 or 1, wherein the spatial structural component unit derived from the diol compound represented by formula (a5), (a13), (a14) or (a15), if present, constitutes 10 mol% or greater and less than 50 mol% of the total units, wherein the spatial structural component unit derived from the diol compound represented by formula (b), if present, constitutes 10 mol% or greater and not more than 20 mol% of the total units, wherein, in a 0.1 mass% dichloromethane solution, the light transmittance at a wavelength of 355 nm is lower than 20% and the light transmittance at a wavelength of 500 nm is 90% or higher. wherein the spatial structural component unit derived from the diol compound represented by formula (a5), (a13), (a14) or (a15), if present, constitutes 10 mol% or greater and less than 50 mol% of the total units, wherein the spatial structural component unit derived from the diol compound represented by formula (b), if present, constitutes 10 mol% or greater and not more than 20 mol% of the total units, wherein, in a 0.1 mass% dichloromethane solution, the light transmittance at a wavelength of 355 nm is lower than 20% and the light transmittance at a wavelength of 500 nm is 90% or higher.
A method for pyrrolidine alkaloid purification of a plant extract from symphytum, comprising the following steps: - Providing a plant extract from symphytum; wherein a raffinate is separated from the plant extract, and wherein the raffinate has high-molecular polysaccharides in a first precipitate, and the high-molecular polysaccharides are precipitated from a suspension system of symphytum in a first differential precipitation by adjusting the pH-value of the suspension system to 4 - 5, - differential precipitation of low-molecular polysaccharides as a second precipitate from a plant extract (primary extract) formed after the separation process from the raffinate, and in the differential precipitation of the low-molecular polysaccharides the pH-value of the plant extract is adjusted to 2,5 -3,5; wherein the precipitated second precipitate remains in a disperse extract system of the primary extract; - pyrrolizidine alkaloid purification by means of the removal of pyrrolizidine alkaloids (PAs) from the disperse extract system of the primary extract, wherein for the removal, in particular stepwise removal, of pyrrolizidine alkaloids (PAs) from the disperse extract system, the disperse extract system is mixed with a pyrrolizidine alkaloids adsorber and the pyrrolizidine alkaloids adsorber sorbs the pyrrolizidine alkaloids (PAs) from the disperse extract system of the primary extract and the second precipitate of the low-molecular polysaccharides is present in the disperse extract system of the primary extract. - Providing a plant extract from symphytum; wherein a raffinate is separated from the plant extract, and wherein the raffinate has high-molecular polysaccharides in a first precipitate, and the high-molecular polysaccharides are precipitated from a suspension system of symphytum in a first differential precipitation by adjusting the pH-value of the suspension system to 4 - 5, - differential precipitation of low-molecular polysaccharides as a second precipitate from a plant extract (primary extract) formed after the separation process from the raffinate, and in the differential precipitation of the low-molecular polysaccharides the pH-value of the plant extract is adjusted to 2,5 -3,5; wherein the precipitated second precipitate remains in a disperse extract system of the primary extract; - pyrrolizidine alkaloid purification by means of the removal of pyrrolizidine alkaloids (PAs) from the disperse extract system of the primary extract, wherein for the removal, in particular stepwise removal, of pyrrolizidine alkaloids (PAs) from the disperse extract system, the disperse extract system is mixed with a pyrrolizidine alkaloids adsorber and the pyrrolizidine alkaloids adsorber sorbs the pyrrolizidine alkaloids (PAs) from the disperse extract system of the primary extract and the second precipitate of the low-molecular polysaccharides is present in the disperse extract system of the primary extract.
A fluid pump system comprising: a housing including a first end and a second end , the housing defining a first axis (C) extending between the first end and the second end , characterized by the housing further including a wall extending at least partially around the first axis (C), the wall at least partially enclosing a chamber; a motor at least partially positioned within the chamber; a fan positioned proximate the first end of the housing , the fan generating air flow through the chamber; and a fluid conduit configured to be in fluid communication with a fluid reservoir , at least a portion of the fluid conduit positioned within the chamber and extending around a portion of the motor . a housing including a first end and a second end , the housing defining a first axis (C) extending between the first end and the second end , characterized by the housing further including a wall extending at least partially around the first axis (C), the wall at least partially enclosing a chamber; a motor at least partially positioned within the chamber; a fan positioned proximate the first end of the housing , the fan generating air flow through the chamber; and a fluid conduit configured to be in fluid communication with a fluid reservoir , at least a portion of the fluid conduit positioned within the chamber and extending around a portion of the motor .
A method for transmitting a service request message, comprising: after a dispatcher receives a service request message, obtaining, by the dispatcher , information that is about a first controller and that is comprised in the service request message; determining, by the dispatcher , in a correspondence between information about multiple controllers and a driver adaptation plug-in group, a first driver adaptation plug-in group corresponding to the information about the first controller, wherein the first controller is connected to at least one driver adaptation plug-in comprised in the first driver adaptation plug-in group; determining, by the dispatcher , in the at least one driver adaptation plug-in that is connected to the first controller and that is comprised in the first driver adaptation plug-in group, at least one to-be-selected driver adaptation plug-in, wherein a running status of the at least one to-be-selected driver adaptation plug-in is normal; and sending, by the dispatcher , the service request message to the first controller by using one of the at least one to-be-selected driver adaptation plug-in. after a dispatcher receives a service request message, obtaining, by the dispatcher , information that is about a first controller and that is comprised in the service request message; determining, by the dispatcher , in a correspondence between information about multiple controllers and a driver adaptation plug-in group, a first driver adaptation plug-in group corresponding to the information about the first controller, wherein the first controller is connected to at least one driver adaptation plug-in comprised in the first driver adaptation plug-in group; determining, by the dispatcher , in the at least one driver adaptation plug-in that is connected to the first controller and that is comprised in the first driver adaptation plug-in group, at least one to-be-selected driver adaptation plug-in, wherein a running status of the at least one to-be-selected driver adaptation plug-in is normal; and sending, by the dispatcher , the service request message to the first controller by using one of the at least one to-be-selected driver adaptation plug-in.
A method for wireless communications by a user equipment, UE, comprising: receiving rate matching information for a repeated physical broadcast channel, PBCH, transmission in a radio frame, characterized in that the PBCH transmission is repeated in the frequency domain at a band edge of a downlink bandwidth; and processing downlink transmissions in the radio frame, based on the rate matching information. receiving rate matching information for a repeated physical broadcast channel, PBCH, transmission in a radio frame, characterized in that the PBCH transmission is repeated in the frequency domain at a band edge of a downlink bandwidth; and processing downlink transmissions in the radio frame, based on the rate matching information.
A method of wireless communication at a User Equipment, UE, comprising: receiving , from a base station , an indication corresponding to a Channel Occupancy Time, COT, wherein the indication is for at least one of a subset of Control Resource Sets, CORESETs, a subset of Quasi co-location, QCL, assumptions, a subset of uplink resources, or a subset of spatial relations for determining a default beam; determining the default beam from the base station for use during the COT based on the indication; and transmitting or receiving a transmission using the default beam. receiving , from a base station , an indication corresponding to a Channel Occupancy Time, COT, wherein the indication is for at least one of a subset of Control Resource Sets, CORESETs, a subset of Quasi co-location, QCL, assumptions, a subset of uplink resources, or a subset of spatial relations for determining a default beam; determining the default beam from the base station for use during the COT based on the indication; and transmitting or receiving a transmission using the default beam.
Process for the formation of an amide bond by reaction of an acid with a primary or secondary amine in the presence of a base with the aid of an amide linking reagent, characterised in that use is made of at least one amide linking reagent containing an anion of the formula (I), [P(C n F 2n+1 ) y F 6-y ] - (I), where n stands on each occurrence, independently, for 1, 2, 3, 4, 5, 6, 7 or 8 and y stands for 1, 2, 3 or 4. n stands on each occurrence, independently, for 1, 2, 3, 4, 5, 6, 7 or 8 and y stands for 1, 2, 3 or 4.
Method for decelerating a trailer vehicle in a vehicle combination comprising a tractor vehicle and at least one trailer vehicle , wherein wheel brakes of the trailer vehicle are actuated pneumatically via trailer brake pressure , characterized in that a respective wheel module on one or more wheels of the trailer vehicle determines measured acceleration values of the wheel , the determined measured acceleration values are evaluated by evaluation electronics of the wheel module and are monitored with regard to a locking tendency of the respective wheel , the locking tendency of the respective wheel is determined, and information signals corresponding to the evaluation of the measured acceleration values and the determined locking tendency are generated and wirelessly transmitted, wherein, upon receiving the information signal from a wheel module , an electronic brake control unit adjusts the trailer brake pressure , taking into account the information signal .
A packaging method for a terminal, comprising: forming an adhesive layer on a packaging surface of a packaging module , wherein a shape and a size of the adhesive layer are adapted to the packaging surface , wherein the forming the adhesive layer on the packaging surface of the packaging module comprises: coating a substrate membrane with sealant ; pressing the sealant-coated side of the substrate membrane onto the packaging surface , so that the sealant is attached onto the packaging surface ; and removing the substrate membrane to form the adhesive layer ; and after the removing the substrate membrane , further comprising: polishing the adhesive layer , so that a shape and a size of a surface, in contact with the packaging surface of the adhesive layer are the same as the shape and the size of the packaging surface , and subsequently fastening , into a terminal housing, the packaging module on which the adhesive layer is formed. forming an adhesive layer on a packaging surface of a packaging module , wherein a shape and a size of the adhesive layer are adapted to the packaging surface , wherein the forming the adhesive layer on the packaging surface of the packaging module comprises: coating a substrate membrane with sealant ; pressing the sealant-coated side of the substrate membrane onto the packaging surface , so that the sealant is attached onto the packaging surface ; and removing the substrate membrane to form the adhesive layer ; and coating a substrate membrane with sealant ; pressing the sealant-coated side of the substrate membrane onto the packaging surface , so that the sealant is attached onto the packaging surface ; and removing the substrate membrane to form the adhesive layer ; and after the removing the substrate membrane , further comprising: polishing the adhesive layer , so that a shape and a size of a surface, in contact with the packaging surface of the adhesive layer are the same as the shape and the size of the packaging surface , and subsequently fastening , into a terminal housing, the packaging module on which the adhesive layer is formed. polishing the adhesive layer , so that a shape and a size of a surface, in contact with the packaging surface of the adhesive layer are the same as the shape and the size of the packaging surface , and subsequently fastening , into a terminal housing, the packaging module on which the adhesive layer is formed.
An image decoding device which decodes a predictive-encoded bit stream to acquire a moving image signal, the bit stream being generated by dividing a frame of the moving image signal into blocks (Ba, Bb, Bx), the image decoding device comprising: a prediction unit for dividing each block into one or more prediction regions according to a block division pattern (mc_mode0 - mc_mode7) corresponding to a motion prediction block dividing mode and performing motion prediction of a target block (Bx) by allocating a motion vector to each divided region according to the motion prediction block dividing mode; a variable length decoding unit for decoding the motion prediction block dividing mode based on a context model ; characterized in that the variable length decoding unit is configured to use both the motion prediction block dividing mode (m(Ba)) of the Block (Ba) on the left of the target block (Bx) within the same frame and the motion prediction block dividing mode (m(Bb)) of the block (Bb) above the target block (Bx) within the same frame for the determination of the context model ; and the variable length decoding unit changes the context model depending on whether the adjacent block (Ba, Bb) of the block (Bx) has a skip mode. a prediction unit for dividing each block into one or more prediction regions according to a block division pattern (mc_mode0 - mc_mode7) corresponding to a motion prediction block dividing mode and performing motion prediction of a target block (Bx) by allocating a motion vector to each divided region according to the motion prediction block dividing mode; a variable length decoding unit for decoding the motion prediction block dividing mode based on a context model ; characterized in that the variable length decoding unit is configured to use both the motion prediction block dividing mode (m(Ba)) of the Block (Ba) on the left of the target block (Bx) within the same frame and the motion prediction block dividing mode (m(Bb)) of the block (Bb) above the target block (Bx) within the same frame for the determination of the context model ; and the variable length decoding unit changes the context model depending on whether the adjacent block (Ba, Bb) of the block (Bx) has a skip mode.