mhurhangee/ep-ind-claims huggingface dataset:
A control system of an internet-of-things (IoT) boiler, comprising: an IoT boiler adapted to check an operation state of the IoT boiler to transmit state information, and comprising a sensor to sense whether or not a fault of the IoT boiler occurs to transmit fault information; a manager terminal that includes a boiler control application for monitoring and controlling the IoT boiler, and that is adapted to monitor a state of the IoT boiler, to receive control information for controlling the IoT boiler from a manager, and to transmit the control information; and a central management server connectable to the IoT boiler and to the manager terminal through a network, adapted to periodically or non-periodically receive and store the state information of the IoT boiler from the IoT boiler, and to receive the control information for controlling the IoT boiler from the manager terminal to perform control of the IoT boiler, the control system being characterized in that: in a case where the central management server receives the fault information from the IoT boiler, the central management server is adapted to transmit a fault code corresponding to the fault information to the manager terminal, and to receive the control information for controlling the IoT boiler from the manager terminal to perform a fault process of the IoT boiler. an IoT boiler adapted to check an operation state of the IoT boiler to transmit state information, and comprising a sensor to sense whether or not a fault of the IoT boiler occurs to transmit fault information; a manager terminal that includes a boiler control application for monitoring and controlling the IoT boiler, and that is adapted to monitor a state of the IoT boiler, to receive control information for controlling the IoT boiler from a manager, and to transmit the control information; and a central management server connectable to the IoT boiler and to the manager terminal through a network, adapted to periodically or non-periodically receive and store the state information of the IoT boiler from the IoT boiler, and to receive the control information for controlling the IoT boiler from the manager terminal to perform control of the IoT boiler, the control system being characterized in that: in a case where the central management server receives the fault information from the IoT boiler, the central management server is adapted to transmit a fault code corresponding to the fault information to the manager terminal, and to receive the control information for controlling the IoT boiler from the manager terminal to perform a fault process of the IoT boiler.
A filing valve comprising: - a main body at least partially defining a feeding duct for a pourable product; - a shutter body mobile, within said main body, between a relative closed position, in which said shutter body sealingly engages a passage section of said feeding duct, and a relative maximum open position in which said body leaves said passage section free at the maximum; and - actuating means of said shutter body; wherein said shutter body comprises a stem and a plurality of fins (122, 122') radially projecting from said stem and adapted to slidingly guide said shutter body within said main body, and said main body comprises a tubular segment within which said shutter body slides, the diameter (D s) of said stem being smaller than the internal diameter of said tubular segment; the filling valve further comprising an annular duct adapted to allow the flow of a pourable product comprising suspended solid particles being defined between said stem and the internal wall of said main body; characterised in that said actuating means comprise at least one first pair of magnets (52, 52') external to said main body, arranged adjacent to one another with identical magnetic poles facing each other axially and movable in an axial direction; said shutter body comprises a second pair of magnets (127, 127') arranged adjacent to one another with identical magnetic poles facing each other axially, magnetically coupled with said at least first pair of magnets (52, 52') to move in an axial direction together therewith and arranged, with respect thereto, with different magnetic poles reciprocally facing radially; and in that said diameter (D s) of the stem is comprised in the range between 10 and 50 mm, the ratio (D1-D s)/2 is in the range from 1 to 20. - a main body at least partially defining a feeding duct for a pourable product; - a shutter body mobile, within said main body, between a relative closed position, in which said shutter body sealingly engages a passage section of said feeding duct, and a relative maximum open position in which said body leaves said passage section free at the maximum; and - actuating means of said shutter body; wherein said shutter body comprises a stem and a plurality of fins (122, 122') radially projecting from said stem and adapted to slidingly guide said shutter body within said main body, and said main body comprises a tubular segment within which said shutter body slides, the diameter (D s) of said stem being smaller than the internal diameter of said tubular segment;
A method, performed by a user equipment served by a first eNB, for detecting a hidden node in LTE licensed assisted access, comprising: determining resources for hidden node detection measurement from signaling received by the user equipment; receiving an indication from the first eNB that the first eNB is occupying a channel that has been occupied by the first eNB because it was detected as free in a listen before talk procedure, whereby the indication is in the form of downlink scheduling information or in the form of an explicit indication if a given set of subframes is used for downlink transmission; determining, for a subframe in which the resources for hidden node detection measurement are located, whether the first eNB occupies the respective channel or not based on the received indication; in case it is determined that the first eNB is occupying the channel, performing hidden node detection measurement in the determined resources; and transmitting the hidden node detection measurement results to a second eNB. determining resources for hidden node detection measurement from signaling received by the user equipment; receiving an indication from the first eNB that the first eNB is occupying a channel that has been occupied by the first eNB because it was detected as free in a listen before talk procedure, whereby the indication is in the form of downlink scheduling information or in the form of an explicit indication if a given set of subframes is used for downlink transmission; determining, for a subframe in which the resources for hidden node detection measurement are located, whether the first eNB occupies the respective channel or not based on the received indication; in case it is determined that the first eNB is occupying the channel, performing hidden node detection measurement in the determined resources; and transmitting the hidden node detection measurement results to a second eNB.
A compound 6-(N-(7-chloro-1-hydroxy-1,3-dihydrobenzo[c][1,2]oxaborol-5-yl)methylsulfonamido)-5-cyclopropyl-2-(4-fluorophenyl)-N-methylbenzofuran-3-carboxamide, having the formula Or a pharmaceutically acceptable salt thereof.
Heat-sensitive recording material comprising a carrier substrate which is black or coloured on at least one side, and a thermoresponsive layer on the at least one black or coloured side of the carrier substrate, wherein the thermoresponsive layer comprises nanoparticles of at least one cellulose ester.
A workstation for operating a robotic catheter system comprising: a user interface configured to receive a first user input (23,25,29) and a second user input; a control system operatively coupled to the user interface, the control system configured to remotely and independently control movement of a percutaneous device with a bedside system, wherein the percutaneous device is moveable both for advancement and retraction along a longitudinal axis of the percutaneous device and for rotation about the longitudinal axis of the percutaneous device; and a device movement algorithm subsystem including a first set of instructions and at least a second set of instructions; wherein the control system controls the percutaneous device based upon both the first user input (23, 25, 29) causing advancement or retraction of the percutaneous device and at least one of the sets of instructions of the device movement algorithm subsystem operatively selected with the second user input causing an automatic rotation of the percutaneous device by a specified amount as the percutaneous device is advanced or retracted, wherein the at least one of the sets of instructions of the device movement algorithm subsystem causes the automatic rotation of the percutaneous device. a user interface configured to receive a first user input (23,25,29) and a second user input; a control system operatively coupled to the user interface, the control system configured to remotely and independently control movement of a percutaneous device with a bedside system, wherein the percutaneous device is moveable both for advancement and retraction along a longitudinal axis of the percutaneous device and for rotation about the longitudinal axis of the percutaneous device; and a device movement algorithm subsystem including a first set of instructions and at least a second set of instructions; wherein the control system controls the percutaneous device based upon both the first user input (23, 25, 29) causing advancement or retraction of the percutaneous device and at least one of the sets of instructions of the device movement algorithm subsystem operatively selected with the second user input causing an automatic rotation of the percutaneous device by a specified amount as the percutaneous device is advanced or retracted, wherein the at least one of the sets of instructions of the device movement algorithm subsystem causes the automatic rotation of the percutaneous device.
An anchoring assembly for fastening a railway rail to an underlying foundation; the anchoring assembly comprising: a base plate configured to receive the rail; a fastener configured to fasten the base plate to the underlying foundation; and a rigid sleeve defining a passage through which a stem of the fastener passes, wherein the base plate comprises an opening and the sleeve is configured to extend through the base plate opening, wherein the sleeve extends a distance greater than a thickness of the base plate such that the sleeve extends from a top surface of the base plate and beyond a bottom surface of the base plate when installed, and wherein the sleeve is configured such that a compressive load applied by the fastener when installed is transmitted through the sleeve to the underlying foundation, and characterised in that the sleeve passage extends in a direction perpendicular to a longitudinal axis of the fastener when installed such that the lateral position of the sleeve and base plate relative to the underlying foundation is adjustable. a base plate configured to receive the rail; a fastener configured to fasten the base plate to the underlying foundation; and a rigid sleeve defining a passage through which a stem of the fastener passes, wherein the base plate comprises an opening and the sleeve is configured to extend through the base plate opening, wherein the sleeve extends a distance greater than a thickness of the base plate such that the sleeve extends from a top surface of the base plate and beyond a bottom surface of the base plate when installed, and wherein the sleeve is configured such that a compressive load applied by the fastener when installed is transmitted through the sleeve to the underlying foundation, and characterised in that the sleeve passage extends in a direction perpendicular to a longitudinal axis of the fastener when installed such that the lateral position of the sleeve and base plate relative to the underlying foundation is adjustable.
A washing machine, comprising: a motor including a stator and a rotor; a drum drivable by a rotation shaft of the rotor; a tub defining a space where the drum is positioned; a bearing housing (170, 270, 370) fixed to the tub and accommodating bearings therein, the bearings supporting the rotation shaft of the rotor; and a mounting ring (190, 290, 390, 390') sandwiched between the stator and the bearing housing (170, 270, 370) and coupled to the bearing housing (170, 270, 370) and the stator, respectively, characterized in that the mounting ring (190, 290, 390, 390') comprises: a plurality of bearing couplers (194, 294, 394, 394') coupled to the bearing housing; and a plurality of stator couplers (191, 291, 391, 391') disposed between the bearing couplers and coupled to the stator, wherein the stator couplers (191, 291, 391, 391') interconnect the bearing couplers (194, 294, 394, 394') and fix the stator. a motor including a stator and a rotor; a drum drivable by a rotation shaft of the rotor; a tub defining a space where the drum is positioned; a bearing housing (170, 270, 370) fixed to the tub and accommodating bearings therein, the bearings supporting the rotation shaft of the rotor; and a mounting ring (190, 290, 390, 390') sandwiched between the stator and the bearing housing (170, 270, 370) and coupled to the bearing housing (170, 270, 370) and the stator, respectively, characterized in that the mounting ring (190, 290, 390, 390') comprises: a plurality of bearing couplers (194, 294, 394, 394') coupled to the bearing housing; and a plurality of stator couplers (191, 291, 391, 391') disposed between the bearing couplers and coupled to the stator, wherein the stator couplers (191, 291, 391, 391') interconnect the bearing couplers (194, 294, 394, 394') and fix the stator. a plurality of bearing couplers (194, 294, 394, 394') coupled to the bearing housing; and a plurality of stator couplers (191, 291, 391, 391') disposed between the bearing couplers and coupled to the stator, wherein the stator couplers (191, 291, 391, 391') interconnect the bearing couplers (194, 294, 394, 394') and fix the stator.
An authentication method, comprising: initiating, by a Mobility Management Entity, an Authentication and Key Agreement procedure for a current service borne by a Non Access Stratum, NAS, signaling connection, if a NAS count value comes close to a maximum value; determining, by the Mobility Management Entity, whether the current service is allowed as an unauthenticated service in accordance with a network policy if the Authentication and Key Agreement procedure for the current service fails; determining, whether the current service requires authentication in accordance with a current service type or Quality of Service; keeping, the NAS signaling connection of the current service, if the current service is allowed as an unauthenticated service in accordance with the network policy, and the current service does not require authentication. initiating, by a Mobility Management Entity, an Authentication and Key Agreement procedure for a current service borne by a Non Access Stratum, NAS, signaling connection, if a NAS count value comes close to a maximum value; determining, by the Mobility Management Entity, whether the current service is allowed as an unauthenticated service in accordance with a network policy if the Authentication and Key Agreement procedure for the current service fails; determining, whether the current service requires authentication in accordance with a current service type or Quality of Service; keeping, the NAS signaling connection of the current service, if the current service is allowed as an unauthenticated service in accordance with the network policy, and the current service does not require authentication.
A coding method for coding a coefficient of a frequency component included in a target block to be coded, the coding method comprising: transforming the coefficient of the frequency component into a run value and a level value; and coding the coefficient of the frequency component, wherein said coding of the coefficient of the frequency component includes: counting a number of zero-value coefficient within the target block with a frequency component which is not higher than a frequency component corresponding to a zero-value coefficient related to the run value to be coded; selecting a code table in accordance with the counted number of zero-value coefficient; and variable length coding the coefficient of the frequency component by using the selected code table, wherein a variable length coded coefficient of the frequency component is output as a bit stream from a high frequency component toward a low frequency component. transforming the coefficient of the frequency component into a run value and a level value; and coding the coefficient of the frequency component, wherein said coding of the coefficient of the frequency component includes: counting a number of zero-value coefficient within the target block with a frequency component which is not higher than a frequency component corresponding to a zero-value coefficient related to the run value to be coded; selecting a code table in accordance with the counted number of zero-value coefficient; and variable length coding the coefficient of the frequency component by using the selected code table, wherein a variable length coded coefficient of the frequency component is output as a bit stream from a high frequency component toward a low frequency component. counting a number of zero-value coefficient within the target block with a frequency component which is not higher than a frequency component corresponding to a zero-value coefficient related to the run value to be coded; selecting a code table in accordance with the counted number of zero-value coefficient; and variable length coding the coefficient of the frequency component by using the selected code table, wherein a variable length coded coefficient of the frequency component is output as a bit stream from a high frequency component toward a low frequency component.
A superconducting nanowire single-photon detector, comprising a superconducting nanowire configured and arranged for the incidence of a photon on a region thereof and the formation, on said region, of a localized non-superconducting region or hotspot, wherein said superconducting nanowire is made of a high-Tc cuprate superconductor material having a superconducting critical temperature above 77 K, characterized in that the thickness of said superconducting nanowire is below 1.7 nm, and in that said high-Tc cuprate superconductor material is at least one of Bi 2 Sr 2 Ca 2 Cu 3 O 10, Bi 2 Sr 2 CaCu 2 O 8, YBa 2 Cu 3 O 7, Tl 2 Ba 2 CuO 6, Tl 2 Ba 2 CaCu 2 O 8, Tl 2 Ba 2 Ca 2 Cu 3 O 10, TlBa 2 Ca 3 Cu 4 O 11, HgBa 2 CuO 4, HgBa 2 CaCu 2 O 6, HgBa 2 Ca 2 Cu 3 O 8.
Supporting structure for supporting panels intended to form a containing body of an air handling unit, or of an extraction unit or of a plenum box, said supporting structure comprising silver ions and supporting section bars (5, 6) cooperating together to support said panels, said supporting section bars (5, 6) being coated externally with said silver ions, wherein each of said supporting section bars (5, 6) comprises a first part (13, 53) and a second part (14, 54) that are connected together, said first part (13, 53) and said second part (14, 54) being made of aluminium, characterised in that each of said supporting section bars (5, 6) comprises at least one insert made of a material with low thermal conductivity arranged for connecting said first part (13, 53) to said second part (14, 54), said insert being coated externally with said silver ions.
A method of producing a thermocouple having a tailored thermoelectric response, comprising the steps of; (a) selecting a first thermoelectric material, (b) selecting a second thermoelectric material having dissimilar thermoelectric properties to the first thermoelectric material, a thermocouple formed from the first thermoelectric material and the second thermoelectric material having a known thermoelectric response, and (c) modifying the chemical composition of at least one of the first thermoelectric material and the second thermoelectric material to produce a thermocouple having the tailored thermoelectric response, characterized in that modification of the chemical composition of at least one of the first thermoelectric material and the second thermoelectric material is achieved by selectively depleting one or more elements from the material to alter its thermoelectric properties, wherein selective depletion is achieved by heating the first thermoelectric material and/or the second thermoelectric material to a predetermined temperature in a controlled environment to deplete one or more elements from the material by a process of sublimation. (a) selecting a first thermoelectric material, (b) selecting a second thermoelectric material having dissimilar thermoelectric properties to the first thermoelectric material, a thermocouple formed from the first thermoelectric material and the second thermoelectric material having a known thermoelectric response, and (c) modifying the chemical composition of at least one of the first thermoelectric material and the second thermoelectric material to produce a thermocouple having the tailored thermoelectric response, characterized in that modification of the chemical composition of at least one of the first thermoelectric material and the second thermoelectric material is achieved by selectively depleting one or more elements from the material to alter its thermoelectric properties, wherein selective depletion is achieved by heating the first thermoelectric material and/or the second thermoelectric material to a predetermined temperature in a controlled environment to deplete one or more elements from the material by a process of sublimation.
A leading edge system for an aerospace vehicle, the leading edge system comprising: at least one structural member; a plurality of removable modules removably attached to the at least one structural member, each removable module comprising: a hollow box substructure; and at least one flange portion disposed along a first end of the hollow box substructure; a plurality of first attachment elements configured for attaching the at least one flange portion of the removable module to a first end portion of the at least one structural member; and a plurality of second attachment elements configured for attaching a second end of the hollow box substructure opposite the at least one flange portion, to a second end portion of the at least one structural member opposite the first end portion; wherein the plurality of second attachment elements each comprises a dagger pin and a dagger pin nut. at least one structural member; a plurality of removable modules removably attached to the at least one structural member, each removable module comprising: a hollow box substructure; and at least one flange portion disposed along a first end of the hollow box substructure; a hollow box substructure; and at least one flange portion disposed along a first end of the hollow box substructure; a plurality of first attachment elements configured for attaching the at least one flange portion of the removable module to a first end portion of the at least one structural member; and a plurality of second attachment elements configured for attaching a second end of the hollow box substructure opposite the at least one flange portion, to a second end portion of the at least one structural member opposite the first end portion; wherein the plurality of second attachment elements each comprises a dagger pin and a dagger pin nut.