mhurhangee/ep-ind-claims huggingface dataset:
A method of managing an access attempt for accessing a cellular network, the method being performed by a communication device and comprising: - sending to a radio network node of the cellular network an access request message for requesting access to the cellular network, - receiving from the radio network node an access response message for the access request message, the access response message comprising a wait indication indicating to wait for a resumption indication before resuming the access attempt, the resumption indication indicating to resume the access attempt, and - in response to the received wait indication, waiting to resume the access attempt, wherein the communication device is in an idle mode and the access response message is received after a random access response message, or wherein the communication device is in a connected mode and the resumption indication is received via a physical downlink control channel, the method further comprising: - resuming the access attempt in response to the received resumption indication, if the resumption indication is received during the step of waiting. - sending to a radio network node of the cellular network an access request message for requesting access to the cellular network, - receiving from the radio network node an access response message for the access request message, the access response message comprising a wait indication indicating to wait for a resumption indication before resuming the access attempt, the resumption indication indicating to resume the access attempt, and - in response to the received wait indication, waiting to resume the access attempt, wherein the communication device is in an idle mode and the access response message is received after a random access response message, or wherein the communication device is in a connected mode and the resumption indication is received via a physical downlink control channel, - resuming the access attempt in response to the received resumption indication, if the resumption indication is received during the step of waiting.
A pneumatic tire comprising: a tread having a groove, a pair of side walls respectively arranged at opposite ends of the tread, and a sound absorbing member positioned on an inner side of the pneumatic tire and comprising a pair of edges and a central part, the pair of edges being respectively adjacent to the pair of side walls and having a first thickness, and the central part being positioned between the pair of edges and having a second thickness, the first thickness being less than the second thickness, characterized in that the sound absorbing member comprises a first surface facing the tread, and a second surface opposite the first surface, the second surface being a curved surface extending from one of the pair of edges to the other one, wherein the curved surface has a uniform radius of curvature selected in the range of 150 mm to 250 mm. a tread having a groove, a pair of side walls respectively arranged at opposite ends of the tread, and a sound absorbing member positioned on an inner side of the pneumatic tire and comprising a pair of edges and a central part, the pair of edges being respectively adjacent to the pair of side walls and having a first thickness, and the central part being positioned between the pair of edges and having a second thickness, the first thickness being less than the second thickness, characterized in that the sound absorbing member comprises a first surface facing the tread, and a second surface opposite the first surface, the second surface being a curved surface extending from one of the pair of edges to the other one, wherein the curved surface has a uniform radius of curvature selected in the range of 150 mm to 250 mm.
Combination of a series capacitor (310; 410; 510; 610) and a hybrid thyristor-controlled series capacitor (TCSC) and passive damping circuit (300; 400; 500; 600) for controlling flow of power over a transmission line (305; 405; 505; 605) electrically connected in series to the series capacitor (310; 410; 510; 610), the hybrid TCSC and passive damping circuit (300; 400; 500; 600) comprising: a filter circuit (320; 420; 520; 620); and a thyristor-controlled circuit (340; 430; 540; 630); characterized in that the filter circuit (320; 420; 520; 620) comprises: a filter reactor (326; 426; 526; 626) and a filter capacitor (324; 424; 524; 624) electrically connected in parallel; and a filter resistor (322; 422; 522; 622) configured to damp sub-synchronous series resonance caused by the series capacitor (310; 410; 510; 610) electrically connected in series with the parallel-connected filter reactor (326; 426; 526; 626) and filter capacitor (324; 424; 524; 624). a filter circuit (320; 420; 520; 620); and a thyristor-controlled circuit (340; 430; 540; 630); characterized in that the filter circuit (320; 420; 520; 620) comprises: a filter reactor (326; 426; 526; 626) and a filter capacitor (324; 424; 524; 624) electrically connected in parallel; and a filter resistor (322; 422; 522; 622) configured to damp sub-synchronous series resonance caused by the series capacitor (310; 410; 510; 610) electrically connected in series with the parallel-connected filter reactor (326; 426; 526; 626) and filter capacitor (324; 424; 524; 624). a filter reactor (326; 426; 526; 626) and a filter capacitor (324; 424; 524; 624) electrically connected in parallel; and a filter resistor (322; 422; 522; 622) configured to damp sub-synchronous series resonance caused by the series capacitor (310; 410; 510; 610) electrically connected in series with the parallel-connected filter reactor (326; 426; 526; 626) and filter capacitor (324; 424; 524; 624).
A method of controlling a variable vane assembly, comprising the steps of: sensing a first angular deflection of a first array of variable vanes about a first vane axis, and a second angular deflection of a second array of variable vanes about a second vane axis, the first array of variable vanes axially spaced from the second array of variable vanes; and adjusting the angular deflection of one of the first and second arrays of variable vanes, based on the sensed angular deflections from the other of the first and second arrays of variable vanes. sensing a first angular deflection of a first array of variable vanes about a first vane axis, and a second angular deflection of a second array of variable vanes about a second vane axis, the first array of variable vanes axially spaced from the second array of variable vanes; and adjusting the angular deflection of one of the first and second arrays of variable vanes, based on the sensed angular deflections from the other of the first and second arrays of variable vanes.
A method for securing a luffing jib crane comprising the following steps: - acquiring a jib lifting/lowering setpoint by means of a lifting speed command manipulator; - piloting a lifting motor of a lifting winch by a converter that applies to said lifting motor a motor command speed as a function of the lifting/lowering setpoint; - driving, in lifting or in lowering, the jib by at least one lifting cable of the lifting winch under the action of the lifting motor applying the motor command speed from the converter; - acquiring, by a control/command system, the motor command speed or the lifting/lowering setpoint; - calculating, by the control/command system, a jib lifting/lowering theoretical angular speed from the motor command speed or from the lifting/lowering setpoint; - acquiring, by the control/command system, a jib angle measured by an angle sensor; - calculating, by the control/command system, a jib lifting/lowering actual angular speed from the measured jib angle; - comparing, by the control/command system, the jib lifting/lowering actual angular speed and the jib lifting/lowering theoretical angular speed; - commanding the stopping of the lifting motor by the control/command system according to the result from the comparison between the jib lifting/lowering actual angular speed and the jib lifting/lowering theoretical angular speed. - acquiring a jib lifting/lowering setpoint by means of a lifting speed command manipulator; - piloting a lifting motor of a lifting winch by a converter that applies to said lifting motor a motor command speed as a function of the lifting/lowering setpoint; - driving, in lifting or in lowering, the jib by at least one lifting cable of the lifting winch under the action of the lifting motor applying the motor command speed from the converter; - acquiring, by a control/command system, the motor command speed or the lifting/lowering setpoint; - calculating, by the control/command system, a jib lifting/lowering theoretical angular speed from the motor command speed or from the lifting/lowering setpoint; - acquiring, by the control/command system, a jib angle measured by an angle sensor; - calculating, by the control/command system, a jib lifting/lowering actual angular speed from the measured jib angle; - comparing, by the control/command system, the jib lifting/lowering actual angular speed and the jib lifting/lowering theoretical angular speed; - commanding the stopping of the lifting motor by the control/command system according to the result from the comparison between the jib lifting/lowering actual angular speed and the jib lifting/lowering theoretical angular speed.
A tire comprising a circular tire frame including a resinous material, the resinous material including at least one thermoplastic elastomer selected from the group consisting of a polyurethane-based thermoplastic elastomer and a polyamide-based thermoplastic elastomer, the polyurethane-based thermoplastic elastomer being a copolymer that includes a soft segment including a unit structure represented by the following Formula A and a hard segment including a unit structure represented by the following Formula B: wherein, in Formula A, P represents a long-chain aliphatic polyether or a long-chain aliphatic polyester, and R represents an aliphatic hydrocarbon, an alicyclic hydrocarbon, or an aromatic hydrocarbon, and, in Formula B, P' represents a short-chain aliphatic hydrocarbon, an alicyclic hydrocarbon, or an aromatic hydrocarbon, and R represents an aliphatic hydrocarbon, an alicyclic hydrocarbon, or an aromatic hydrocarbon, the polyamide-based thermoplastic elastomer including polyamide as a hard segment, and at least one of polyethylene glycol or polypropylene glycol as a soft segment, a content of resin component in the resinous material is 50% by mass or more with respect to the total amount of the resinous material, and 60% or more of molecular chain terminals of the thermoplastic elastomer being hard segments, the percentage of molecular chain terminals of the thermoplastic elastomer that are hard segments being determined by calculation from the percentage of molecular chain terminals that are soft segments as determined by dividing the number of reactive functional groups of soft segments remaining at terminals by the total number of terminals.
Use of a composition for removing biofilms comprising at least one detergent component comprising a wetting agent and a dispersing agent, and at least one enzymatic component comprising at least one protease, at least one laccase and at least one polysaccharidase, said use comprising a treatment of surface, production tools or conveying facilities and/or production facilities and/or packaging facilities, with which perishable goods come into contact, for increasing the shelf life of said perishable goods up to 50%, preferable up to 60%, preferentially up to 75%.
A method for treating biogas, in which the biogas originating from a fermentation is separated into a directly utilizable stream of gas essentially consisting of methane gas and into a waste gas stream containing contaminants which is thermally or catalytically oxidized, characterized in that prior to the oxidation, the waste gas stream is conducted through closed substrate storage tanks and/or fermentation residue tanks.
A method of identifying subject specific T cell receptor pairs suitable for subject specific cancer therapy, the method comprising: (a) isolating from a subject a population of T cells; (b) determining by single cell sequencing the sequences encoding the TCR pairs on individual cells in the population isolated in (a); (c) transfecting or transducing T cell lines deficient in endogenous TCRs with the sequences encoding individual TCR pairs determined in (b); (d) using the T cell lines from (c) to assay binding of the subject specific TCR pairs to subject specific neoepitopes and selecting the TCR pairs that bind to subject specific neoepitopes. (a) isolating from a subject a population of T cells; (b) determining by single cell sequencing the sequences encoding the TCR pairs on individual cells in the population isolated in (a); (c) transfecting or transducing T cell lines deficient in endogenous TCRs with the sequences encoding individual TCR pairs determined in (b); (d) using the T cell lines from (c) to assay binding of the subject specific TCR pairs to subject specific neoepitopes and selecting the TCR pairs that bind to subject specific neoepitopes.
A zirconia sintered body containing yttria in an amount of 6-15 mol% and titania in an amount of 3-20 mol% and having an in-line transmission of 50% or higher when examined at a sample thickness of 1 mm and a measuring wavelength of 600 nm, having an average grain size of less than 30 μm, and having an average bending strength of 250 MPa or higher, wherein the in-line transmission is a parameter having the following relational expression; Ti = Tt − Td Tt: total forward transmission (%) Td: diffuse transmission (%) Ti: in-line transmission (%). Tt: total forward transmission (%) Td: diffuse transmission (%) Ti: in-line transmission (%).
An inhaler housing comprising a receiving portion adapted to at least partially receive a container containing a medicament, and a dispensing portion through which the medicament is dispensed, wherein the receiving portion and the dispensing portion are movable relative to one another between a storage condition, in which the receiving portion and the dispensing portion at least partially overlie one another, and a use condition, wherein the dispensing portion and the receiving portion are configured to move between the storage condition and the use condition using both a sliding movement and a pivoting movement, wherein the inhaler housing includes one or more retention members adapted to retain the inhaler housing in the use condition, wherein the dispensing portion is provided with one or more protrusions which is the point about which the receiving portion and the dispensing portion pivots relative to one another, and wherein the dispensing portion is provided with a cut out portion, the cut out portion receiving a portion of an outer surface of the receiving portion such that the outer surface abuts the cut out portion.
A crankshaft for use in a hermetically sealed reciprocating compressor of a refrigeration appliance, the compressor comprising a cylinder block which has a main bearing for supporting the crankshaft and a casing which has a lower section for collecting lubricant, the crankshaft comprising a vertically extending shaft which includes an integral bearing section that is adapted for being journalled into the main bearing, the shaft comprising an integral lower tip section that is adapted for being directly immersed into the lubricant inside the lower section, the crankshaft being characterized in that the shaft further comprises two axially upwardly diverging lubricant channels (11, 12) that are formed within the shaft and adapted for conveying the lubricant from the lower tip section towards the surface of the bearing section upon rotation of the shaft.
A lubricating oil composition for a timepiece, comprising a lubricant component containing at least one base oil selected from a polyol ester (A-1), a paraffin-based hydrocarbon oil (A-2) having 25 or more carbon atoms and an ether oil (A-3), at least one antiwear agent selected from a neutral phosphate ester and a neutral phosphite ester, and an antioxidant, wherein the total acid number of the composition measured in accordance with JIS K2501-5 is not more than 0.8 mgKOH/g, the antiwear agent is contained in an amount of 0.1 to 15 parts by mass based on 100 parts by mass of the lubricant component, and the antioxidant is contained in an amount of 0.01 to 3 parts by mass based on 100 parts by mass of the lubricant component, and a diphenylamine derivative (C-1) represented by the following general formula (c-1) and a hindered amine compound (C-2) represented by the following general formula (c-2) are contained as the antioxidants, wherein R c11 and R c12 each independently represent a straight-chain or branched alkyl group of 1 to 10 carbon atoms, and p and q each independently represent an integer of 0 to 5 with the proviso that p and q do not represent 0 at the same time, wherein R c21 and R c22 each independently represent an aliphatic hydrocarbon group of 1 to 10 carbon atoms, and R c23 represents a divalent aliphatic hydrocarbon group of 1 to 10 carbon atoms.
A computer-executed method comprising: receiving a request to create a collection of pseudorandom number generators, PRNGs; in response to receiving the request to create a collection of PRNGs, creating the collection of PRNGs by: generating a salt value comprising a first pseudorandom number, and creating each PRNG of the collection of PRNGs based on a PRNG-specific brine value that comprises both (a) at least a portion of the salt value and (b) an index value that is unique to said each PRNG within the collection of PRNGs; wherein the method is performed by one or more computing devices. receiving a request to create a collection of pseudorandom number generators, PRNGs; in response to receiving the request to create a collection of PRNGs, creating the collection of PRNGs by: generating a salt value comprising a first pseudorandom number, and creating each PRNG of the collection of PRNGs based on a PRNG-specific brine value that comprises both (a) at least a portion of the salt value and (b) an index value that is unique to said each PRNG within the collection of PRNGs; generating a salt value comprising a first pseudorandom number, and creating each PRNG of the collection of PRNGs based on a PRNG-specific brine value that comprises both (a) at least a portion of the salt value and (b) an index value that is unique to said each PRNG within the collection of PRNGs; wherein the method is performed by one or more computing devices.
Detection device for detecting at least one fault state, with at least one tracer unit (20a - d) that comprises, in at least one operating state, at least one specifically added tracer substance (26 a-d), and with at least one detection unit (12a - d) for detecting a material portion of the at least one tracer substance (26a-d), which has been released in at least one fault state, wherein the at least one tracer unit (20a-d) is embodied at least partly integrally with at least one assembly unit (30a-d, 36a), wherein the at least one tracer unit comprises, in at least one operating state, at least one specifically added further tracer substance, wherein the at least one tracer substance and the at least one further tracer substance are arranged at least to a large extent at and/or on different assembly units (30a, 36a) and/or different assembly elements (32a, 34a, 38a) of at least one assembly unit (30a, 36a), wherein the released material portion of the at least one further tracer substance is intended for detecting a further fault state by the detection unit (12a-d), allowing a detection of at least two fault states by means of the at least one tracer unit, wherein the detection unit comprises a plurality of detection elements (14a, 16a), which are configured for a detection of the different tracer substances (26a-d, 28a), wherein the detection elements (14a, 16a) comprise metal-oxide sensors, detecting the at least one tracer substance (26a-d) by a method in which a conductance of a metal-oxide sensor is changed by the at least one tracer substance, wherein the detection unit is configured to determine the at least one fault state by way of a pattern recognition of measuring signals of the at least one tracer substance and the at least one further tracer substance, wherein the at least one detection unit comprises at least one signal unit, which is configured for a signalization of a detected fault state, wherein the at least one fault state is an inadmissible temperature change of at least one assembly unit (30a-c, 36a), and wherein the at least one further fault state is a pressure change, namely a falling below a predefined limit value of an air pressure and/or gas pressure.
A glazing element for a vehicle including at least one first panel of transparent material intended to be fixed at least to an upright of the bodywork of a vehicle, said glazing element being characterized in that said first panel of transparent material has a coupling sole formed as an integral part of said first panel and which locally increases the thickness of said first panel so as to form at least one coupling surface which is secant with the visible exterior surface of the first panel, and the shape of which more or less mates with that of the receiving surface of the upright against which said coupling surface is to be applied.
A method for a terminal to receive a downlink signal, the method comprising: receiving (S1301, S1101) a time alignment command from a base station; running a time alignment timer for a predetermined time after the time alignment command is received; receiving (S1002, S1302, S1103) a downlink allocation signal from the base station after the time alignment timer has expired; receiving (S1303, S1104) a downlink signal through a wireless resource corresponding to the downlink allocation signal after the time alignment timer has expired; decoding the downlink signal; and generating HARQ feedback information according to the decoding result of the downlink signal; wherein the terminal does not transmit the generated HARQ feedback information to the base station. receiving (S1301, S1101) a time alignment command from a base station; running a time alignment timer for a predetermined time after the time alignment command is received; receiving (S1002, S1302, S1103) a downlink allocation signal from the base station after the time alignment timer has expired; receiving (S1303, S1104) a downlink signal through a wireless resource corresponding to the downlink allocation signal after the time alignment timer has expired; decoding the downlink signal; and generating HARQ feedback information according to the decoding result of the downlink signal; wherein the terminal does not transmit the generated HARQ feedback information to the base station.