mhurhangee/ep-ind-claims huggingface dataset:
A solar tracker with a torsional vibration damping device, comprising: a rotating shaft having a longitudinal axis; a pivoting assembly fixedly connected to the rotating shaft, the pivoting assembly having solar panels arranged to receive solar radiation; a fixed structure comprising a plurality of support elements (4, 5, 6) rotationally supporting the rotating shaft at a plurality of support points distributed there along; a motor-reducer assembly operatively connected to rotate the rotating shaft about the longitudinal axis so as to track the sun, the motor-reducer assembly being cinematically connected to the rotating shaft at a motor connection point and having an irreversible reducer configured to provide retention against torsional vibration of the rotating shaft at the motor connection point; and a torsional vibration damping device having one moving member rigidly connected to the rotating shaft to move therewith; characterized in that: the torsional vibration damping device further comprises a stationary member which is rigidly attached to the fixed structure; the moving member of the torsional vibration damping device is rigidly connected to the rotating shaft at a damper connection point spaced apart from the motor connection point and arranged to move close to the stationary member without contact; and both the moving member and the stationary member comprises elements capable to generate a magnetic field when a movement of the moving member relative to the stationary member occurs, resulting in a damping torque on the rotating shaft. a rotating shaft having a longitudinal axis; a pivoting assembly fixedly connected to the rotating shaft, the pivoting assembly having solar panels arranged to receive solar radiation; a fixed structure comprising a plurality of support elements (4, 5, 6) rotationally supporting the rotating shaft at a plurality of support points distributed there along; a motor-reducer assembly operatively connected to rotate the rotating shaft about the longitudinal axis so as to track the sun, the motor-reducer assembly being cinematically connected to the rotating shaft at a motor connection point and having an irreversible reducer configured to provide retention against torsional vibration of the rotating shaft at the motor connection point; and a torsional vibration damping device having one moving member rigidly connected to the rotating shaft to move therewith; the torsional vibration damping device further comprises a stationary member which is rigidly attached to the fixed structure; the moving member of the torsional vibration damping device is rigidly connected to the rotating shaft at a damper connection point spaced apart from the motor connection point and arranged to move close to the stationary member without contact; and both the moving member and the stationary member comprises elements capable to generate a magnetic field when a movement of the moving member relative to the stationary member occurs, resulting in a damping torque on the rotating shaft.
A wireless communication method, comprising: determining, by a first terminal, whether the first terminal satisfies a condition for transmitting trigger signaling, the trigger signaling instructing a second terminal to transmit assistance information for assisting the first terminal in resource selection; and transmitting, by the first terminal, the trigger signaling when the first terminal satisfies the condition for transmitting the trigger signaling, the method being further characterized in that said satisfying the condition for the transmitting the trigger signaling comprises: a delay requirement of the sidelink data to be transmitted by the first terminal satisfying the condition for transmitting the trigger signaling. determining, by a first terminal, whether the first terminal satisfies a condition for transmitting trigger signaling, the trigger signaling instructing a second terminal to transmit assistance information for assisting the first terminal in resource selection; and transmitting, by the first terminal, the trigger signaling when the first terminal satisfies the condition for transmitting the trigger signaling, the method being further characterized in that said satisfying the condition for the transmitting the trigger signaling comprises: a delay requirement of the sidelink data to be transmitted by the first terminal satisfying the condition for transmitting the trigger signaling.
A method of providing interoperability between an Internet protocol multi-media subsystem domain and a non-IMS domain, comprising the steps of: receiving on a service layer a service invocation message from the non-IMS domain; analyzing the message to identify the message as a request to invoke a service within the IMS domain; converting on a session control layer non-IMS session control protocol elements related to the message into IMS session control related protocol elements; sending one or more messages towards the IMS domain to provide an IMS control session in the IMS domain based on the IMS session control related protocol elements; and forwarding on the service layer the service invocation message using the IMS control session; characterized in further comprising the steps of: analyzing the message (101, 107) received from the non-IMS domain and/or from the IMS domain; determining a state of the session with the service in the IMS domain based on the analyzed message; and storing the state of the session. receiving on a service layer a service invocation message from the non-IMS domain; analyzing the message to identify the message as a request to invoke a service within the IMS domain; converting on a session control layer non-IMS session control protocol elements related to the message into IMS session control related protocol elements; sending one or more messages towards the IMS domain to provide an IMS control session in the IMS domain based on the IMS session control related protocol elements; and forwarding on the service layer the service invocation message using the IMS control session; characterized in further comprising the steps of: analyzing the message (101, 107) received from the non-IMS domain and/or from the IMS domain; determining a state of the session with the service in the IMS domain based on the analyzed message; and storing the state of the session. analyzing the message (101, 107) received from the non-IMS domain and/or from the IMS domain; determining a state of the session with the service in the IMS domain based on the analyzed message; and storing the state of the session.
Method of preparing a compound of the following Formula: in which R represents: - an aryl group comprising from 6 to 10 carbon atoms, possibly substituted, - a heteroaryl group comprising from 5 to 10 atoms, including at least one heteroatom chosen from O, S or N, possibly substituted, or - an alkyl group comprising from 1 to 6 carbon atoms, substituted by an aryl group comprising from 6 to 10 carbon atoms, said method comprising: a) a step of mixing a nitrile of the following Formula: R-CN R being as defined above, with dichloromethane and sulphur, in an alcohol, b) a step of adding hydrazine monohydrate to the mixture obtained at the end of step a), and mixing the assembly thus obtained, c) a step of oxidising the mixture obtained at the end of step b), and d) a possible step of isolating the compound of Formula. - an aryl group comprising from 6 to 10 carbon atoms, possibly substituted, - a heteroaryl group comprising from 5 to 10 atoms, including at least one heteroatom chosen from O, S or N, possibly substituted, or - an alkyl group comprising from 1 to 6 carbon atoms, substituted by an aryl group comprising from 6 to 10 carbon atoms, a) a step of mixing a nitrile of the following Formula: R-CN R being as defined above, with dichloromethane and sulphur, in an alcohol, b) a step of adding hydrazine monohydrate to the mixture obtained at the end of step a), and mixing the assembly thus obtained, c) a step of oxidising the mixture obtained at the end of step b), and d) a possible step of isolating the compound of Formula.
A circuit breaker comprising: a plurality of fixed bars configured to form fixed contacts; a plurality of movable bars configured to be rotated through a switch to be connected to or disconnected with the plurality of the fixed bars and configured to form movable contacts opposing the fixed contacts; a plurality of arc chambers configured to cover contact parts of the plurality of the fixed bars and the plurality of the movable bars to remove an arc being generated on the contact parts; a single piece molded bottom base configured to separately accommodate the plurality of the movable bars, the plurality of the fixed bars and the plurality of the arc chambers; and a single piece molded top base configured to form a pair with the bottom base to separately seal the plurality of the movable bars, the plurality of the fixed bars and the plurality of the arc chambers, wherein the plurality of the arc chambers has layered plates to cover upper sides of the fixed contacts in the plurality of the fixed bars, and wherein the switch is configured to rotate the plurality of movable bars around a rotation axis by means of a movable axis that is connected to the plurality of movable bars, characterised in that the plurality of movable bars each comprises a recess accommodating said movable axis, said recess being configured to cause said movable axis to lift or lower the plurality of movable bars when the switch is rotated in a first direction or a second opposite direction. a plurality of fixed bars configured to form fixed contacts; a plurality of movable bars configured to be rotated through a switch to be connected to or disconnected with the plurality of the fixed bars and configured to form movable contacts opposing the fixed contacts; a plurality of arc chambers configured to cover contact parts of the plurality of the fixed bars and the plurality of the movable bars to remove an arc being generated on the contact parts; a single piece molded bottom base configured to separately accommodate the plurality of the movable bars, the plurality of the fixed bars and the plurality of the arc chambers; and a single piece molded top base configured to form a pair with the bottom base to separately seal the plurality of the movable bars, the plurality of the fixed bars and the plurality of the arc chambers, wherein the plurality of the arc chambers has layered plates to cover upper sides of the fixed contacts in the plurality of the fixed bars, and wherein the switch is configured to rotate the plurality of movable bars around a rotation axis by means of a movable axis that is connected to the plurality of movable bars, characterised in that the plurality of movable bars each comprises a recess accommodating said movable axis, said recess being configured to cause said movable axis to lift or lower the plurality of movable bars when the switch is rotated in a first direction or a second opposite direction.
A method for establishing a wireless local area network connection, wherein an access point locally stores an identifier of at least one station, and the method comprises: sending (S310, S520), by the access point, a beacon frame, wherein the beacon frame indicates that the access point supports automatic triggering of establishing a wireless local area network connection; receiving (S320, S540), by the access point, a probe request frame sent by a first station, and determining, by the access point, whether the identifier of the at least one station comprises an identifier of the first station, wherein the probe request frame carries the identifier of the first station, and the probe request frame is used to request to establish a wireless local area network connection; and if the identifier of the at least one station comprises the identifier of the first station, establishing (S330, S450, S580), by the access point, a wireless local area network connection to the first station according to a registrar protocol of Wi-Fi Simple Configuration, WSC. sending (S310, S520), by the access point, a beacon frame, wherein the beacon frame indicates that the access point supports automatic triggering of establishing a wireless local area network connection; receiving (S320, S540), by the access point, a probe request frame sent by a first station, and determining, by the access point, whether the identifier of the at least one station comprises an identifier of the first station, wherein the probe request frame carries the identifier of the first station, and the probe request frame is used to request to establish a wireless local area network connection; and if the identifier of the at least one station comprises the identifier of the first station, establishing (S330, S450, S580), by the access point, a wireless local area network connection to the first station according to a registrar protocol of Wi-Fi Simple Configuration, WSC.
Method for correcting a fluorescence image, comprising the following steps: - illuminating an object using an excitation light source; - detecting fluorescence radiation with a fluorescence-image sensor, the fluorescence radiation being emitted by the object under the effect of said illumination; - acquiring said fluorescence image ( I fluo) with said fluorescence-image sensor on the basis of the detected fluorescence radiation; and - applying an illuminance correction function ( f, f d) to the fluorescence image ( I fluo), said correction function using an illuminance image ( M, M d, M' d, M G,d) representative of the spatial distribution of an illuminance ( Φ) produced, on the object, by the excitation light source, the method being characterized in that it includes a step of measuring a distance ( d) between the excitation source and the object, the correction function ( f d) being dependent on the measured distance (d), and using an illuminance image ( M d, M' d, M G,d) associated with said distance ( d), the correction function being such that two illuminance images ( M d', M d") respectively associated with two different distances ( d ', d ") are representative of two spatial distributions of illuminance that are different from each other and non-uniform. - illuminating an object using an excitation light source; - detecting fluorescence radiation with a fluorescence-image sensor, the fluorescence radiation being emitted by the object under the effect of said illumination; - acquiring said fluorescence image ( I fluo) with said fluorescence-image sensor on the basis of the detected fluorescence radiation; and - applying an illuminance correction function ( f, f d) to the fluorescence image ( I fluo), said correction function using an illuminance image ( M, M d, M' d, M G,d) representative of the spatial distribution of an illuminance ( Φ) produced, on the object, by the excitation light source,
A unit (1, 1') for recovering and converting thermal energy from the exhaust gases of an internal combustion engine of a vehicle, said unit comprising: - a heat exchanger (2, 2') to be traversed by exhaust gases flowing along a by-pass path (5, 5') branching out from an exhaust gas main line of said internal combustion engine, and - valve means for controlling the flow of the exhaust gases through said path, said valve means being driven by an actuator device, - said by-pass path (5, 5') is a U-shaped path defined entirely by said heat exchanger (2, 2'), starting from an inlet section (6, 6') of said heat exchanger and ending at an outlet section of said heat exchanger, said inlet and outlet sections (7, 7') being located on a same side of the heat exchanger and both opening on an interface conduit portion interposed in said exhaust gas main line, said heat exchanger (2, 2') is arranged so that said U-shaped path is oriented transversely to the direction of the exhaust gas main line, in such a manner that the exhaust gases traversing the heat exchanger flow firstly in the transverse direction away from the exhaust gas main line and then back in the transverse direction towards the exhaust gas main line, - said valve means being arranged within said interface conduit portion, at a position axially intermediate between merging points of said inlet and outlet portions (6, 7) of the heat exchanger (2, 2'), - wherein said heat exchanger further comprises a heat exchange unit having an inlet orifice and an outlet orifice, said heat exchange unit being arranged to promote heat exchange between a fluid circulating therein and a fluid circulating in said path, wherein said unit is arranged to cooperate with an engine unit of a motor vehicle comprising said internal combustion engine, wherein the fluid circulating inside said heat exchange unit is cooling water of said internal combustion engine, characterized in that said outlet orifice of said heat exchange unit is connected to a cabin heater. - a heat exchanger (2, 2') to be traversed by exhaust gases flowing along a by-pass path (5, 5') branching out from an exhaust gas main line of said internal combustion engine, and - valve means for controlling the flow of the exhaust gases through said path, said valve means being driven by an actuator device, - said by-pass path (5, 5') is a U-shaped path defined entirely by said heat exchanger (2, 2'), starting from an inlet section (6, 6') of said heat exchanger and ending at an outlet section of said heat exchanger, said inlet and outlet sections (7, 7') being located on a same side of the heat exchanger and both opening on an interface conduit portion interposed in said exhaust gas main line, - said valve means being arranged within said interface conduit portion, at a position axially intermediate between merging points of said inlet and outlet portions (6, 7) of the heat exchanger (2, 2'), - wherein said heat exchanger further comprises a heat exchange unit having an inlet orifice and an outlet orifice, said heat exchange unit being arranged to promote heat exchange between a fluid circulating therein and a fluid circulating in said path,
A fusion protein that represses expression of a Huntington ( Htt) gene, the fusion protein comprising a repression domain an an engineered zinc finger protein, the zinc finger protein comprising 5 or 6 zinc finger recognition regions, ordered F1 to F5 or F1 to F6 from N-terminus to C-terminus, wherein the zinc finger protein comprises the recognition helix regions in the order shown in a single row of the following Table: SBS # Design F1 F2 F3 F4 F5 F6 18832 RSDHLSR (SEQ ID NO:1) DRSNLTR (SEQ ID NO:2) RSDHLSR (SEQ ID NO:1) QSSDLRR (SEQ ID NO:3) QSSNLAR (SEQ ID NO:4) DRSHLAR (SEQ ID NO:5) 18856 RSDDLSR (SEQ ID NO:6) RNDNRTK (SEQ ID NO:7) RSDDLTR (SEQ ID NO:8) RSDDRKT (SEQ ID NO:9) RSADLTR (SEQ ID NO:10) QSSDLRR (SEQ ID NO:3) 18859 ERGTLAR (SEQ ID NO:11) QSSDLRR (SEQ ID NO:3) RSDHLSQ (SEQ ID NO:12) RSDVRKN (SEQ ID NO:13) DRSDLSR (SEQ ID NO:14) DRSHLAR (SEQ ID NO:5) 18868 DRSHLTR (SEQ ID NO:15) RNDDRKK (SEQ ID NO:16) DRSDLSR (SEQ ID NO:14) RSDNLTR (SEQ ID NO:17) RSDTLSN (SEQ ID NO:18) TNSDRTK (SEQ ID NO:19) 25920 RSAALSR (SEQ ID NO:24) RSDALAR (SEQ ID NO:25) RSDNLSE (SEQ ID NO:26) KRCNLRC (SEQ ID NO:27) QSSDLRR (SEQ ID NO:3) N/A 25921 WRSCRSA (SEQ ID NO:28) DRSNLSR (SEQ ID NO:29) QRTHLTQ (SEQ ID NO:30) RSAHLSR (SEQ ID NO:31) TSGHLSR (SEQ ID NO:32) N/A 25922 RSAALSR (SEQ ID NO:24) RSDALAR (SEQ ID NO:25) RSDNLSE (SEQ ID NO:26) KRCNLRC (SEQ ID NO:27) QSSDLSR (SEQ ID NO:33) DRSHLAR (SEQ ID NO:5 [[**]]) 25923 RSDDLSR (SEQ ID NO:6) RNDNRTK (SEQ ID NO:7) WRSCRSA (SEQ ID NO:28) RSDNLAR (SEQ ID NO:34) QSGHLSR (SEQ ID NO:35) N/A and further wherein the zinc finger protein targets a sequence selected from the group consisting of SEQ ID NO:20-23 and 36-39.
Use of an optical waveguide-forming composition for the formation of an optical waveguide for the long wavelength region, the composition comprising: (a) 100 parts by mass of a reactive silsesquioxane compound that is a polycondensation product of an alkoxysilane compound A of the following Formula: Ar 1 -Si(OR 1) 3 wherein Ar 1 is a phenyl group having at least one group having a polymerizable double bond, a naphthyl group having at least one group having a polymerizable double bond, or a biphenyl group having at least one group having a polymerizable double bond; and R 1 is a methyl group or an ethyl group; and an alkoxysilane compound B of the following Formula: Ar 2 -Si(OR 2) 3 wherein Ar 2 is a phenyl group optionally substituted with a C 1-6 alkyl group, a condensed polycyclic aromatic hydrocarbon group optionally substituted with a C 1-6 alkyl group, or a hydrocarbon ring assembly group (optionally substituted with a C 1-6 alkyl group) in which a plurality of aromatic rings are directly joined by a single bond; and R 2 is a methyl group or an ethyl group; and (b) 10 to 500 parts by mass of a fluorene compound of the following Formula: wherein R 3 and R 4 are each independently a hydrogen atom or a methyl group; L 1 and L 2 are each independently a phenylene group optionally having a substituent or a naphthalenediyl group optionally having a substituent; L 3 and L 4 are each independently a C 1-6 alkylene group; and m and n are each zero or a positive integer such that m + n is 0 to 40. (a) 100 parts by mass of a reactive silsesquioxane compound that is a polycondensation product of an alkoxysilane compound A of the following Formula: Ar 1 -Si(OR 1) 3 wherein Ar 1 is a phenyl group having at least one group having a polymerizable double bond, a naphthyl group having at least one group having a polymerizable double bond, or a biphenyl group having at least one group having a polymerizable double bond; and R 1 is a methyl group or an ethyl group; and an alkoxysilane compound B of the following Formula: Ar 2 -Si(OR 2) 3 wherein Ar 2 is a phenyl group optionally substituted with a C 1-6 alkyl group, a condensed polycyclic aromatic hydrocarbon group optionally substituted with a C 1-6 alkyl group, or a hydrocarbon ring assembly group (optionally substituted with a C 1-6 alkyl group) in which a plurality of aromatic rings are directly joined by a single bond; and R 2 is a methyl group or an ethyl group; and (b) 10 to 500 parts by mass of a fluorene compound of the following Formula:
A gas turbine engine comprising: an exhaust nozzle assembly; a rotor assembly; and a retainer comprising: a center body; a plurality of struts connected to and extending outward and axially aft from the center body; and a ring connected to the plurality of struts, wherein the ring is positioned aft of the center body with respect to a direction of airflow through the gas turbine engine; wherein the retainer is positioned downstream of the rotor assembly within said exhaust nozzle assembly characterised in that: the center body and the plurality of struts are positioned within a flow path of the gas turbine engine. an exhaust nozzle assembly; a rotor assembly; and a retainer comprising: a center body; a plurality of struts connected to and extending outward and axially aft from the center body; and a ring connected to the plurality of struts, wherein the ring is positioned aft of the center body with respect to a direction of airflow through the gas turbine engine;