mhurhangee/ep-ind-claims huggingface dataset:
A tire in which a mounting direction to a vehicle is designated, the tire comprising: a tread part configured to be in contact with a road surface; a pair of bead parts including a bead core and a bead filler; a carcass layer folded around the bead core and extended toroidally between the pair of bead parts; and a reinforcing cord layer having a cord configured to reinforce the pair of bead part, wherein in a vehicle inner side bead part, a number of layers in the reinforcing cord layer is larger on an inner side in a tire width direction with respect to the bead filler than on an outer side in the tire width direction with respect to the bead filler, in a vehicle outer side bead part, a number of layers in the reinforcing cord layer is larger on the outer side in the tire width direction with respect to the bead filler than on the inner side in the tire width direction with respect to the bead filler, and characterized in that a length in the tire radial direction of the reinforcing cord layer in the vehicle outer side bead part is the same as a length in the tire radial direction of the reinforcing cord layer in the vehicle inner side bead part. a tread part configured to be in contact with a road surface; a pair of bead parts including a bead core and a bead filler; a carcass layer folded around the bead core and extended toroidally between the pair of bead parts; and a reinforcing cord layer having a cord configured to reinforce the pair of bead part, wherein in a vehicle inner side bead part, a number of layers in the reinforcing cord layer is larger on an inner side in a tire width direction with respect to the bead filler than on an outer side in the tire width direction with respect to the bead filler, in a vehicle outer side bead part, a number of layers in the reinforcing cord layer is larger on the outer side in the tire width direction with respect to the bead filler than on the inner side in the tire width direction with respect to the bead filler, and characterized in that a length in the tire radial direction of the reinforcing cord layer in the vehicle outer side bead part is the same as a length in the tire radial direction of the reinforcing cord layer in the vehicle inner side bead part.
An automated system for mitigating risk from a wind turbine, the automated system comprising: a plurality of optical imaging sensors; and a controller configured to receive and analyze images from the optical imaging sensors to send a first signal to curtail operation of the wind turbine to a predetermined risk mitigating level when the controller determines from images received from the optical imaging sensors that an airborne animal is of a predetermined species and is at risk from the wind turbine; wherein the controller is further configured to subsequently automatically send a second signal to resume normal operation of the wind turbine when the controller determines from additional images from the optical imaging sensors that there is a reduced level of risk from the wind turbine to the airborne animal; and wherein the controller is further configured to determine whether the airborne animal is a member of the predetermined species before the airborne animal is closer to the wind turbine than a distance the predetermined species flies at a characteristic speed to the airborne animal in a time required to curtail operation of the wind turbine to the predetermined risk mitigating level. a plurality of optical imaging sensors; and a controller configured to receive and analyze images from the optical imaging sensors to send a first signal to curtail operation of the wind turbine to a predetermined risk mitigating level when the controller determines from images received from the optical imaging sensors that an airborne animal is of a predetermined species and is at risk from the wind turbine; wherein the controller is further configured to subsequently automatically send a second signal to resume normal operation of the wind turbine when the controller determines from additional images from the optical imaging sensors that there is a reduced level of risk from the wind turbine to the airborne animal; and wherein the controller is further configured to determine whether the airborne animal is a member of the predetermined species before the airborne animal is closer to the wind turbine than a distance the predetermined species flies at a characteristic speed to the airborne animal in a time required to curtail operation of the wind turbine to the predetermined risk mitigating level.
A flanged bearing (300, 500), comprising: a body (310, 510) having a first axial end (303, 503) and a second axial end (305, 505); and at least one flange (322, 522) projecting radially from the second axial end of the body, wherein the at least one flange comprises a first region (324, 524), second region (328, 528), and an annular stepped transition region (326, 526) between the first and second regions, wherein the second region is elevated axially above the first region so as to protrude axially outwardly, wherein 1) the second region extends partially circumferentially around the flange to form at least one segment, and/or 2) the first region extends from the body to the annular stepped transition region and defines a maximum first axial height, h max1, defined as the distance from the first axial end to the maximum height of the first region, and the second region extending around the flange from the annular stepped transition region defines a second maximum axial height, h max2, defined as the distance from the first axial end to the maximum height of the second region, and wherein h max1 < h max2.
Slave device circuitry, included by a slave device, the slave device circuitry comprising: a processor and memory coupled thereto having stored therein program code instructions which, when executed by the processor, cause the processor to: following the slave device circuitry being reset, determine a seed value based upon a seed value of the slave device prior to the slave device being reset; receive a host number from a host that is substantially random; generate a session key based upon the determined seed value and the host number, the session key being substantially random; and perform encryption and decryption operations based on the generated session key on data to be transmitted and data received by the slave device circuitry, respectively, and determine an address value based on the generated session key for communicating with the host, wherein substantially random comprises being one of a true random number and a pseudorandom number, and wherein a first portion of the session key is used by the processor performing the encryption and decryption operations on data to be transmitted and data received, respectively, and a second portion of the session key is used for generating the address value. following the slave device circuitry being reset, determine a seed value based upon a seed value of the slave device prior to the slave device being reset; receive a host number from a host that is substantially random; generate a session key based upon the determined seed value and the host number, the session key being substantially random; and perform encryption and decryption operations based on the generated session key on data to be transmitted and data received by the slave device circuitry, respectively, and determine an address value based on the generated session key for communicating with the host, wherein substantially random comprises being one of a true random number and a pseudorandom number, and wherein a first portion of the session key is used by the processor performing the encryption and decryption operations on data to be transmitted and data received, respectively, and a second portion of the session key is used for generating the address value.
A method for manufacturing an adherent film composite for a transdermal therapeutic system, comprising the following steps: - providing a laminate, the laminate comprising a first film, a second film, and an adherent formulation arranged between the first film and the second film, - feeding the laminate in a feeding direction, and - separating, preferably in a peeling manner, the first film with the formulation arranged thereon from the second film, wherein the films (100, 104) are separated by the first film being fed out obliquely to the feeding direction from the second film, wherein the second film is passed on in the feeding direction, and wherein the first film rotates about its longitudinal axis when feeding out the first film, wherein the formulation comprises an active ingredient and/or an adhesive. - providing a laminate, the laminate comprising a first film, a second film, and an adherent formulation arranged between the first film and the second film, - feeding the laminate in a feeding direction, and - separating, preferably in a peeling manner, the first film with the formulation arranged thereon from the second film, wherein the films (100, 104) are separated by the first film being fed out obliquely to the feeding direction from the second film, wherein the second film is passed on in the feeding direction, and wherein the first film rotates about its longitudinal axis when feeding out the first film, wherein the formulation comprises an active ingredient and/or an adhesive.
A composite nanoparticle comprising: a photoluminescent polymeric component; and a photo-thermal polymeric component operable to provide thermal energy to the environment surrounding the composite nanoparticle when irradiated with radiation having a wavelength between 700 nm and 1000 nm. a photoluminescent polymeric component; and a photo-thermal polymeric component operable to provide thermal energy to the environment surrounding the composite nanoparticle when irradiated with radiation having a wavelength between 700 nm and 1000 nm.
An application program management method, wherein the method is performed in a database cluster system comprising at least two database nodes, at least one database object is stored in each database node, and the method comprises: running an application program on a first database node in a first time period; and characterized by determining a target database node based on at least one historical database object accessed by the application program in the first time period, wherein the target database node stores the historical database object; and migrating the application program to the target database node and running the application program on the target database node in a second time period. running an application program on a first database node in a first time period; and characterized by determining a target database node based on at least one historical database object accessed by the application program in the first time period, wherein the target database node stores the historical database object; and migrating the application program to the target database node and running the application program on the target database node in a second time period.
A method performed by a base station in a wireless communication network, the method comprising: transmitting, to a terminal, a list of one or more first identifier and index pairs, each of the one or more first identifier and index pairs including an identifier and an index, wherein the identifier is associated with system information, SI, parameters, and the index indicates SI parameter values for SI parameters corresponding to the identifier; receiving, from the terminal, an SI request message including a second identifier and index pair including an identifier and an index, respectively corresponding to SI parameters and SI parameter values required by the terminal based on the list of the one or more first identifier and index pairs transmitted to the terminal; determining SI parameter values to be transmitted to the terminal, based on the list of the one or more first identifier and index pairs transmitted to the terminal and the identifier and the index included in the second identifier and index pair received from the terminal; and transmitting, to the terminal, a response message including the determined SI parameter values. transmitting, to a terminal, a list of one or more first identifier and index pairs, each of the one or more first identifier and index pairs including an identifier and an index, wherein the identifier is associated with system information, SI, parameters, and the index indicates SI parameter values for SI parameters corresponding to the identifier; receiving, from the terminal, an SI request message including a second identifier and index pair including an identifier and an index, respectively corresponding to SI parameters and SI parameter values required by the terminal based on the list of the one or more first identifier and index pairs transmitted to the terminal; determining SI parameter values to be transmitted to the terminal, based on the list of the one or more first identifier and index pairs transmitted to the terminal and the identifier and the index included in the second identifier and index pair received from the terminal; and transmitting, to the terminal, a response message including the determined SI parameter values.
Method for controlling a hybrid drive of a vehicle, an internal combustion engine, an electric machine and a torque converter, having a first clutch which is arranged between the electric machine and the drive train of the vehicle, and a second clutch which is arranged between the electric machine and the internal combustion engine, wherein operating parameters of the hybrid drive are controlled as a function of the driver's request, and the driver's request is divided into three classes (class 1, class 2, class 3), wherein the classes differ in the torque request assigned to the driver's request, characterized in that the division into classes is performed taking into account the actuation speed of an accelerator pedal and according to the type of the driver (sporty, relaxed), and in the case of a start of the internal combustion engine which is configured for maximum comfort and is triggered by the on-board power system of the vehicle with a clutch configured as a proportional clutch in class 1, the clutch slipping torque set to be as low as is necessary at the start of the internal combustion engine, and in the case of a start of the internal combustion engine in class 3 with a very high torque request assigned to the driver's request the clutch torque is set, in order to achieve a shortest possible starting time, to a value which is significantly higher than the clutch torque which is required to start the internal combustion engine.
A heavy duty diesel engine oil, light duty diesel engine oil, medium speed diesel engine oil or passenger car engine oil comprising a major amount of a base oil and a minor amount of an additive package, wherein the additive package comprises at least one metal dialkyl dithio phosphate salt and at least one friction modifier represented by the formula: wherein R is selected from a hydrocarbyl group, branched, saturated, partially saturated, or unsaturated, having 12 to 28 carbon atoms, a heteroatom containing hydrocarbyl group having 12 to 32 carbon atoms, or a group represented by the formula II: wherein R 1 and R 2 are independently selected from hydrocarbyl carbonyl moieties having 12 to 28 carbon atoms, or R 1 and R 2 form a hydrocarbon dicarbonyl containing ring with 12 to 32 carbon atoms, and R 3 and R 4 are independently selected from alkyl groups having 1 to 18 linear or branched carbon atoms, or the at least one friction modifier represented by the formula; wherein R 7 is a linear or branched, saturated, unsaturated, or partially saturated hydrocarbyl group having 12 to 32 carbon atoms, and wherein the heavy duty diesel engine oil, light duty diesel engine oil, medium speed diesel engine oil or passenger car engine oil is suitable for use as an automotive crankcase oil and comprises 0.2 to 1.8 wt.% of the at least one friction modifier, wherein the weight percentage is based on the total weight of the heavy duty diesel engine oil, light duty diesel engine oil, medium speed diesel engine oil or passenger car engine oil.
An antenna for transmitting and/or receiving electromagnetic waves, comprising: a conducting body acting as a ground plane; and at least one pair of log-periodic dipole arrays arranged above the ground plane, the dipoles of said pair of log-periodic arrays of dipoles forming dipole pairs of parallel and oppositely located dipoles of the same dimensions and arranged in such a way that the geometrical centres of each of said dipole pairs and their images in the ground plane are coinciding, wherein each dipole is a folded dipole comprising two or more parallel or nearly parallel conducting strips that are connected at one or more points or over an extended part of the conducting strips; wherein a plurality of the folded dipoles, within each of said log-periodic dipole array, being closer to said geometrical centre are extending in a first plane, characterized in that the remaining at least one folded dipole being located most far away from said geometrical centre is arranged to extend in at least one additional plane, said additional plane(s) forming an angle relative to said first plane. a conducting body acting as a ground plane; and at least one pair of log-periodic dipole arrays arranged above the ground plane, the dipoles of said pair of log-periodic arrays of dipoles forming dipole pairs of parallel and oppositely located dipoles of the same dimensions and arranged in such a way that the geometrical centres of each of said dipole pairs and their images in the ground plane are coinciding, wherein each dipole is a folded dipole comprising two or more parallel or nearly parallel conducting strips that are connected at one or more points or over an extended part of the conducting strips; wherein a plurality of the folded dipoles, within each of said log-periodic dipole array, being closer to said geometrical centre are extending in a first plane, characterized in that the remaining at least one folded dipole being located most far away from said geometrical centre is arranged to extend in at least one additional plane, said additional plane(s) forming an angle relative to said first plane.
A structure comprising a space frame (9, 9', 109) including a plurality of strut sections (11, 11', 111) which cross at one or more locations within the space frame (9, 9', 109) to define a node (12, 112) at each respective crossing location, wherein the strut sections (11, 11', 111) are laminates comprising a plurality of ply layers, characterised in that the ply layers of the crossing strut sections (11, 11', 111) are interleaved at the node(s) (12, 112), and the strut sections crossing at one node are continuous, so that each of the strut sections crossing at that node extend into the node, through the node and out from the opposite side of the node only.
Spray unit for use in a blasting device for treating a surface, by spraying blasting agent under pressure on the surface to be treated, which spray unit is provided with a housing, as well as a nozzle being rotatably in the housing about an imaginary axis parallel to the supply direction of the blasting agent, and being provided with a number of spray channels that are angled with respect to the direction of feed of the blasting agent, the main part of the nozzle having a circular-cylindrical shape, and the nozzle being provided with an entry side where the blasting agent enters the spray channels and an exit side where the blasting agent leaves the spray channels, wherein the joint area of the cross-sections of the spray channels at right angles to the imaginary axis at the exit side is greater than one third of the area of the cross-section of the circular-cylindrical part of the nozzle perpendicular to the imaginary axis, characterized in that the spray unit is further provided with an insert which is fixed in the housing, the nozzle being rotatable in the insert and being provided with two axial end faces (13a', 13b') and a lateral mantle surface extending there between, wherein the insert is provided with a through hole in which the nozzle is rotatable, which hole is delimited by an inner side of the insert, whereby there is play between the mantle surface of the nozzle and the inside of the insert, wherein the inner side of the insert is provided with recesses which are distributed over the circumference at a mutual distance from each other and which extend over the entire thickness of the nozzle.
A method for producing a variant α-amylase polypeptide having altered binding to starch bundles, in which individual starch polymers are aligned, as compared to a parental α-amylase polypeptide, comprising: introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove that binds to starch bundles, wherein the mutation alters the binding of starch bundles to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide; wherein the starch-binding groove is formed by amino acid residues in the α-helix preceding the first β-stand in the A domain, the loop between the sixth α-helix and the seventh β-strand in the A domain, the loop between the seventh α-helix and the eighth β-strand in the A domain, and the loop connecting the A domain and the C domain; the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering, amino acid residues 1-6, 37, 39, 92-98, 227-229, 252-260, 281-285, 312-323, 357-362, 391, and 395-402, referring to SEQ ID NO: 3 for numbering, or amino acid residues 1-4, 36, 38, 91-97, 226-228, 251-259, 280-284, 311-322, 356-361, 363, 391, and 395-402, referring to SEQ ID NO: 4 for numbering; and wherein the parent has at least 60% amino acid sequence identity to SEQ ID NO: 1, 2, 3, 4, or 5. introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove that binds to starch bundles, wherein the mutation alters the binding of starch bundles to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide; wherein the starch-binding groove is formed by amino acid residues in the α-helix preceding the first β-stand in the A domain, the loop between the sixth α-helix and the seventh β-strand in the A domain, the loop between the seventh α-helix and the eighth β-strand in the A domain, and the loop connecting the A domain and the C domain; the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering, amino acid residues 1-6, 37, 39, 92-98, 227-229, 252-260, 281-285, 312-323, 357-362, 391, and 395-402, referring to SEQ ID NO: 3 for numbering, or amino acid residues 1-4, 36, 38, 91-97, 226-228, 251-259, 280-284, 311-322, 356-361, 363, 391, and 395-402, referring to SEQ ID NO: 4 for numbering; and wherein the parent has at least 60% amino acid sequence identity to SEQ ID NO: 1, 2, 3, 4, or 5.