mhurhangee/ep-ind-claims huggingface dataset:
An aircraft satellite communication system for communicating over a satellite network, the system comprising: a first satellite data unit, SDU, and a second SDU, each configured to engage in communication with at least one satellite of the satellite network; and a network control computing device having a processor and memory storing instructions executable by the processor to perform a set of operations comprising: determining a first availability score for the first SDU based on first operational parameters comprising whether the first SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; determining a second availability score for the second SDU based on second operational parameters comprising whether the second SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; comparing the first availability score for the first SDU with the second availability score for the second SDU; and based on comparing the first availability score with the second availability score, controlling one of the first SDU and the second SDU to be an active SDU. a first satellite data unit, SDU, and a second SDU, each configured to engage in communication with at least one satellite of the satellite network; and a network control computing device having a processor and memory storing instructions executable by the processor to perform a set of operations comprising: determining a first availability score for the first SDU based on first operational parameters comprising whether the first SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; determining a second availability score for the second SDU based on second operational parameters comprising whether the second SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; comparing the first availability score for the first SDU with the second availability score for the second SDU; and based on comparing the first availability score with the second availability score, controlling one of the first SDU and the second SDU to be an active SDU. determining a first availability score for the first SDU based on first operational parameters comprising whether the first SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; determining a second availability score for the second SDU based on second operational parameters comprising whether the second SDU is (i) reporting valid data, (ii) capable of providing data-link services, and (iii) capable of providing voice services; comparing the first availability score for the first SDU with the second availability score for the second SDU; and based on comparing the first availability score with the second availability score, controlling one of the first SDU and the second SDU to be an active SDU.
A wireless communication method, comprising: monitoring, by a terminal device (120, 400), a physical downlink control channel, PDCCH, in a discontinuous reception, DRX, period, wherein the PDCCH carries an uplink grant, and the uplink grant indicates an asynchronous hybrid automatic repeat request, HARQ, process used for transmitting a physical uplink shared channel, PUSCH; and starting, by the terminal device (120; 400), an uplink HARQ round trip time, RTT, timer for the asynchronous HARQ process at a first moment after detecting the PDCCH, wherein the method further comprises: receiving, by the terminal device (120, 400), a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and wherein the starting the uplink HARQ RTT timer at the first moment comprises: starting, by the terminal device (120; 400), the uplink HARQ RTT timer for the asynchronous HARQ process when receiving the repetition termination message. monitoring, by a terminal device (120, 400), a physical downlink control channel, PDCCH, in a discontinuous reception, DRX, period, wherein the PDCCH carries an uplink grant, and the uplink grant indicates an asynchronous hybrid automatic repeat request, HARQ, process used for transmitting a physical uplink shared channel, PUSCH; and starting, by the terminal device (120; 400), an uplink HARQ round trip time, RTT, timer for the asynchronous HARQ process at a first moment after detecting the PDCCH, wherein the method further comprises: receiving, by the terminal device (120, 400), a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and receiving, by the terminal device (120, 400), a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and wherein the starting the uplink HARQ RTT timer at the first moment comprises: starting, by the terminal device (120; 400), the uplink HARQ RTT timer for the asynchronous HARQ process when receiving the repetition termination message.
An inner drum for use in a dryer/mixer in connection with the production of an aggregate-binder mix, wherein the dryer/mixer includes a fixed outer drum surrounding the inner drum such that the inner drum may rotate within the outer drum, a mixing chamber formed between an outer surface of the inner drum and an inner surface of the outer drum where virgin aggregate and a binder are mixed together to form an aggregate-binder mix, an aggregate inlet through which virgin aggregate may be passed into the mixing chamber, a binder inlet through which a binder may be passed into the mixing chamber, and a mix outlet through which the aggregate-binder mix may be passed out of the mixing chamber, the inner drum further comprising: a plurality of mixing paddles disposed on the outer surface of the inner drum and arranged in a plurality of rows, wherein the mixing paddles are configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber; an interstitial space formed between each adjacent pair of rows of mixing paddles through which the aggregate and binder may pass; a plurality of material leads that extend along the mixing chamber and along which aggregate material preferentially travels as a result of a location and orientation of the plurality of mixing paddles; characterized by at least one interstitial mixing paddle disposed on the outer surface of the inner drum and located in one of the interstitial spaces and also positioned at one of the material leads, wherein the interstitial mixing paddle is configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber. a plurality of mixing paddles disposed on the outer surface of the inner drum and arranged in a plurality of rows, wherein the mixing paddles are configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber; an interstitial space formed between each adjacent pair of rows of mixing paddles through which the aggregate and binder may pass; a plurality of material leads that extend along the mixing chamber and along which aggregate material preferentially travels as a result of a location and orientation of the plurality of mixing paddles; characterized by at least one interstitial mixing paddle disposed on the outer surface of the inner drum and located in one of the interstitial spaces and also positioned at one of the material leads, wherein the interstitial mixing paddle is configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber.
An integrated circuit, comprising: a magnetic sensing element; a fault detection module coupled to the sensing element, the fault detection module including circuitry (901, 902, 906) configured to detect a fault condition and to self-test operation of the circuitry for detecting the fault condition; and a fault pin configured to indicate the fault condition, wherein the fault pin comprises an input/output pin such that pulling the fault pin to a given voltage level for a given time provides a self-test request to initiate the self-test operation, wherein the fault detection module includes at least one switch configured to cycle through connections to known voltage and ground signals and verify expected fault and no fault signals on the fault pin for the self-test operation of the circuitry for detecting the fault condition. a magnetic sensing element; a fault detection module coupled to the sensing element, the fault detection module including circuitry (901, 902, 906) configured to detect a fault condition and to self-test operation of the circuitry for detecting the fault condition; and a fault pin configured to indicate the fault condition, wherein the fault pin comprises an input/output pin such that pulling the fault pin to a given voltage level for a given time provides a self-test request to initiate the self-test operation, wherein the fault detection module includes at least one switch configured to cycle through connections to known voltage and ground signals and verify expected fault and no fault signals on the fault pin for the self-test operation of the circuitry for detecting the fault condition.
An assembly for a hand brake valve of a vehicle, comprising: an actuating rod that is configured to assist in shifting brake positions of the hand brake valve, wherein the actuating rod includes two opposing substantially flat surfaces; and a plastic ring comprising two arms, characterized in that, each of the two opposing substantially flat surfaces of the actuating rod includes at least one dent and at least a portion of each of the two arms of the plastic ring is received within the at least one dent. an actuating rod that is configured to assist in shifting brake positions of the hand brake valve, wherein the actuating rod includes two opposing substantially flat surfaces; and a plastic ring comprising two arms, characterized in that, each of the two opposing substantially flat surfaces of the actuating rod includes at least one dent and at least a portion of each of the two arms of the plastic ring is received within the at least one dent.
A method of operating a system for handling an influx of gas into a marine riser during the drilling of a well bore, characterised in that the method includes the steps of operating a first riser closure apparatus to close the riser at a first point above a flow spool provided in the riser, there being a riser gas handling line extending from the riser at the flow spool to a riser gas handling manifold, operating a second riser closure apparatus to close the riser at a second point below the flow spool, pumping fluid into an inlet line which extends into the riser at a point above the second point but below the flow spool, wherein the method further comprises operating a choke (53, 54) provided in the riser gas handling manifold to maintain the pressure in the inlet line or the riser at a substantially constant pressure.
A power module substrate (10, 110) comprising: an insulating substrate (11, 111), a circuit layer (12, 112) formed on one surface of the insulating substrate (11, 111), and a metal layer (13, 113) formed on an other surface of the insulating substrate (11, 111), wherein one surface of the circuit layer (12, 112) functions as an installation surface on which an electronic component is installed, the metal layer (13, 113) is formed by bonding an aluminum sheet composed of aluminum or an aluminum alloy, a thickness t 1 of the circuit layer (12, 112) is within a range of 0.1 mm ≤ t 1 ≤ 0.6 mm, a thickness t 2 of the metal layer (13, 113) is within a range of 0.5 mm ≤ t 2 ≤ 6 mm, a relationship between the thickness t 1 of the circuit layer (12, 112) and the thickness t 2 of the metal layer (13, 113) satisfies t 1 < t 2, characterized in that the circuit layer (12, 112) is composed of oxygen-free copper or 6N-Cu, wherein a relationship between the thickness t 1 of the circuit layer (12, 112) and the thickness t 2 of the metal layer (13, 113) satisfies t 2 /t 1 ≥ 4.00, and wherein an indentation hardness H B1 of the circuit layer (12, 112) in the vicinity of a bonding interface with the insulating substrate (11, 111) is set within a range of 60 mgf/μm 2 ≤ H B1 ≤ 120 mgf/μm 2. an insulating substrate (11, 111), a circuit layer (12, 112) formed on one surface of the insulating substrate (11, 111), and a metal layer (13, 113) formed on an other surface of the insulating substrate (11, 111), wherein one surface of the circuit layer (12, 112) functions as an installation surface on which an electronic component is installed, the metal layer (13, 113) is formed by bonding an aluminum sheet composed of aluminum or an aluminum alloy, a thickness t 1 of the circuit layer (12, 112) is within a range of 0.1 mm ≤ t 1 ≤ 0.6 mm, a thickness t 2 of the metal layer (13, 113) is within a range of 0.5 mm ≤ t 2 ≤ 6 mm, a relationship between the thickness t 1 of the circuit layer (12, 112) and the thickness t 2 of the metal layer (13, 113) satisfies t 1 < t 2, characterized in that the circuit layer (12, 112) is composed of oxygen-free copper or 6N-Cu, wherein a relationship between the thickness t 1 of the circuit layer (12, 112) and the thickness t 2 of the metal layer (13, 113) satisfies t 2 /t 1 ≥ 4.00, and wherein an indentation hardness H B1 of the circuit layer (12, 112) in the vicinity of a bonding interface with the insulating substrate (11, 111) is set within a range of 60 mgf/μm 2 ≤ H B1 ≤ 120 mgf/μm 2.
A computer-implemented method for managing execution of programs for users, the method comprising: reserving, by a program execution service system manager, PESSM, comprised in a program execution service, program execution capacity for a first user during a specified period of time to enable the first user to receive dedicated access to the reserved program execution capacity for executing programs during the specified period of time, the reserved program execution capacity being a subset of available program execution capacity provided by the program execution service; receiving, by the PESSM, a request from the first user to execute one or more programs for the first user during the specified period of time, the request being to execute the one or more programs using unused excess capacity of the program execution service to which the first user does not have dedicated access, and that is distinct from the reserved program execution capacity; determining, by the PESSM, to use the reserved program execution capacity for the first user to execute the one or more programs for the request during the specified period of time, the determining being based at least in part on the first user not otherwise using the dedicated access to the reserved program execution capacity during the specified period of time; and initiating execution of the one or more programs during the specified period of time by using the reserved program execution capacity in lieu of the requested unused excess capacity of the program execution service. reserving, by a program execution service system manager, PESSM, comprised in a program execution service, program execution capacity for a first user during a specified period of time to enable the first user to receive dedicated access to the reserved program execution capacity for executing programs during the specified period of time, the reserved program execution capacity being a subset of available program execution capacity provided by the program execution service; receiving, by the PESSM, a request from the first user to execute one or more programs for the first user during the specified period of time, the request being to execute the one or more programs using unused excess capacity of the program execution service to which the first user does not have dedicated access, and that is distinct from the reserved program execution capacity; determining, by the PESSM, to use the reserved program execution capacity for the first user to execute the one or more programs for the request during the specified period of time, the determining being based at least in part on the first user not otherwise using the dedicated access to the reserved program execution capacity during the specified period of time; and initiating execution of the one or more programs during the specified period of time by using the reserved program execution capacity in lieu of the requested unused excess capacity of the program execution service.
A field device, such as a positioner, an I/P-converter or the like for a processing plant, comprising: an electric input to which an electric power supply can be connected, an electronic unit for processing a process signal, an input circuit connected between the input and the electronic unit for limiting the supply voltage of the electronic unit, characterised in that the input circuit comprises a storage unit for electric energy and a power management circuitry comprising a power requirement acquisitor for determining an actual required power level necessary for processing the process signal by the electronic unit, wherein the input circuit comprises a means for comparing the required power level with an actual power level supplied to the input in order to identify a power amount that can be diverted for storage in the electric storage unit and that the power management circuitry is designed to charge the amount of electric energy of the power supply connected to the input circuit that exceeds the required power level into the electric storage unit.
A pharmaceutical composition or dietary supplement comprising, as the active ingredients, the combination of magnesium, L-tryptophan and at least one ketoboswellic acid, for use in the treatment of poor-posture muscle pain, contracture, or for use in post-traumatic rehabilitation therapy, in an individual.
An apparatus for adaptively treating a tumor with an alternating electric field, the apparatus comprising: an electrical impedance tomography device for measuring the impedance of the tumor, such that a characteristic of cells in the tumor can be determined from the measured impedance of the tumor; an AC signal generator having a controllable output frequency; a processor configured to estimate the characteristic of cells in the tumor based on the measured impedance of the tumor and to adaptively set the output frequency of the AC signal generator based on the estimated characteristic of cells in the tumor; and at least one pair of electrodes operatively connected to the AC signal generator for applying an alternating electric field at the output frequency to the tumor to selectively destroy cells in the tumor; characterized in that the characteristic is size. an electrical impedance tomography device for measuring the impedance of the tumor, such that a characteristic of cells in the tumor can be determined from the measured impedance of the tumor; an AC signal generator having a controllable output frequency; a processor configured to estimate the characteristic of cells in the tumor based on the measured impedance of the tumor and to adaptively set the output frequency of the AC signal generator based on the estimated characteristic of cells in the tumor; and at least one pair of electrodes operatively connected to the AC signal generator for applying an alternating electric field at the output frequency to the tumor to selectively destroy cells in the tumor; characterized in that the characteristic is size.
An electrolyte solution for an electrochemical device, said electrolyte solution comprising at least one compound of formula wherein R 11 is C 2-6 -alkyl: and at least one compound of any of the formulae (a)-(d) wherein R 12 and R 13 each independently are halogen or C 1-3 -alkyl optionally containing a halogen atom, a substituent or a hetero atom, or they together are C 1-3 -alkylene to form a ring together with the boron atom and each of which optionally contains a halogen atom, a substituent or a hetero atom; wherein Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom. of formula wherein R 11 is C 2-6 -alkyl: and at least one compound of any of the formulae (a)-(d) wherein R 12 and R 13 each independently are halogen or C 1-3 -alkyl optionally containing a halogen atom, a substituent or a hetero atom, or they together are C 1-3 -alkylene to form a ring together with the boron atom and each of which optionally contains a halogen atom, a substituent or a hetero atom; wherein Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom. Rf 11 is C 2-6 -alkyl optionally containing a fluorine atom, Rf 12 is F or C 1-6 -alkyl optionally containing a fluorine atom, and R 14 is F or C 1-3 -alkyl containing a halogen atom.
A method performed by a computerized moderator control system comprising: acquiring a merge control to merge a first conference with a second conference to create a single heterogeneous conference, wherein the first conference and the second conference utilize different types of conference hosting systems that are coupled together through a server, and the first conference has an associated first pre-merge moderator and the second conference has an associated second pre-merge moderator; merging the first conference with the second conference to create the heterogeneous conference by sending a merge control to the server to establish conference connections with the conference hosting systems of the conferences being merged; determining a moderator for the heterogeneous conference; and automatically transferring one or more moderator controls to the moderator of the heterogeneous conference, wherein exercising a moderator control comprises sending a control to the server or to the conference hosting systems. acquiring a merge control to merge a first conference with a second conference to create a single heterogeneous conference, wherein the first conference and the second conference utilize different types of conference hosting systems that are coupled together through a server, and the first conference has an associated first pre-merge moderator and the second conference has an associated second pre-merge moderator; merging the first conference with the second conference to create the heterogeneous conference by sending a merge control to the server to establish conference connections with the conference hosting systems of the conferences being merged; determining a moderator for the heterogeneous conference; and automatically transferring one or more moderator controls to the moderator of the heterogeneous conference, wherein exercising a moderator control comprises sending a control to the server or to the conference hosting systems.