mhurhangee/ep-ind-claims huggingface dataset:
A method, at a Network Attached Storage, NAS, switch, for selectively migrating data objects in a storage network, comprising: receiving a policy that includes selective migration rules for determining which data objects are to be selectively migrated from one file server to another file server in the storage network based at least in part on file attributes that specify an attribute of the data objects, but are not the data objects themselves; traversing data objects stored in a tree-structure on a source file server in the storage network, so as to populate a records database with records representative of the data objects in the tree-structure, the records comprising the file attributes; sending to a client a switch file handle associated with one of the data objects, the switch file handle being independent of a location of the data object; mapping the switch file handle to a NAS file handle, wherein the NAS file handle comprises a location of the data object on the source file server; updating the records database to reflect transactions on the source file server, including I/O transactions, associated with the data objects; executing the selective migration rules against records in the records database to determine which data objects are to be migrated; selectively migrating the determined data objects from a location on the source file server to a location on a destination file server; and updating the NAS file handle of the data objects to include the location of the data objects on the destination file server. receiving a policy that includes selective migration rules for determining which data objects are to be selectively migrated from one file server to another file server in the storage network based at least in part on file attributes that specify an attribute of the data objects, but are not the data objects themselves; traversing data objects stored in a tree-structure on a source file server in the storage network, so as to populate a records database with records representative of the data objects in the tree-structure, the records comprising the file attributes; sending to a client a switch file handle associated with one of the data objects, the switch file handle being independent of a location of the data object; mapping the switch file handle to a NAS file handle, wherein the NAS file handle comprises a location of the data object on the source file server; updating the records database to reflect transactions on the source file server, including I/O transactions, associated with the data objects; executing the selective migration rules against records in the records database to determine which data objects are to be migrated; selectively migrating the determined data objects from a location on the source file server to a location on a destination file server; and updating the NAS file handle of the data objects to include the location of the data objects on the destination file server.
A mitral valve prosthesis comprising: a mitral annular ring platform; and a valved-stent mitral valve prosthetic device adapted to be percutaneously and/or transapically delivered to the mitral valve annulus for mounting in said mitral annular ring platform, wherein the mitral annular ring platform comprises: a left atrial disc and a right atrial disc having a central hollow region there between so as to allow left atrial access from the right atrium when said discs are deployed in a heart so as to straddle the atrial septum such that the right atrial disc rests against the atrial septum on the right atrial side, and the left atrial disc rests against the atrial septum on the left atrial side; and a plug adapted to plug said central hollow region between the left atrial disc and the right atrial disc, characterized in that the mitral annular ring platform comprises a mitral annular ring-shaped or oval-shaped platform adapted to lay across a mitral valve orifice to fit into the mitral valve annulus and which is adapted to receive the valved-stent mitral valve prosthesis, wherein the mitral annular ring platform can be compressed for percutaneous and/or transapical delivery. a mitral annular ring platform; and a valved-stent mitral valve prosthetic device adapted to be percutaneously and/or transapically delivered to the mitral valve annulus for mounting in said mitral annular ring platform, wherein the mitral annular ring platform comprises: a left atrial disc and a right atrial disc having a central hollow region there between so as to allow left atrial access from the right atrium when said discs are deployed in a heart so as to straddle the atrial septum such that the right atrial disc rests against the atrial septum on the right atrial side, and the left atrial disc rests against the atrial septum on the left atrial side; and a plug adapted to plug said central hollow region between the left atrial disc and the right atrial disc, a left atrial disc and a right atrial disc having a central hollow region there between so as to allow left atrial access from the right atrium when said discs are deployed in a heart so as to straddle the atrial septum such that the right atrial disc rests against the atrial septum on the right atrial side, and the left atrial disc rests against the atrial septum on the left atrial side; and a plug adapted to plug said central hollow region between the left atrial disc and the right atrial disc, characterized in that the mitral annular ring platform comprises a mitral annular ring-shaped or oval-shaped platform adapted to lay across a mitral valve orifice to fit into the mitral valve annulus and which is adapted to receive the valved-stent mitral valve prosthesis, wherein the mitral annular ring platform can be compressed for percutaneous and/or transapical delivery.
A subsea switchgear for switching the power supply to plural subsea loads, comprising - a subsea enclosure configured to allow the deployment of the subsea switchgear at a subsea location, - a power input for receiving AC electrical power from a power source, - at least two power outputs for giving out AC electrical power, and - a power distribution bus for distributing the received AC electrical power to the at least two power outputs, wherein between each power output and the power distribution bus, a contactor is connected which is controllable to connect or disconnect the respective power output from the power distribution bus, and wherein the subsea switchgear comprises for each power output a chamber in which the contactor for the power output is arranged and which is filled with dielectric liquid. - a subsea enclosure configured to allow the deployment of the subsea switchgear at a subsea location, - a power input for receiving AC electrical power from a power source, - at least two power outputs for giving out AC electrical power, and - a power distribution bus for distributing the received AC electrical power to the at least two power outputs,
An aqueous dispersion comprising a fluorinated polymer comprising: (a) an aqueous continuous phase; and (b) a plurality of fluorinated polymer particles, wherein the fluorinated polymer particle comprises interpolymerized units of (i) a fluorinated terminal alkene monomer and (ii) a tertiary amine-containing fluorinated monomer comprising at least one of a vinyl amine, a substituted vinyl amine, an allyl amine, a substituted allyl amine, and combinations thereof. (a) an aqueous continuous phase; and (b) a plurality of fluorinated polymer particles, wherein the fluorinated polymer particle comprises interpolymerized units of (i) a fluorinated terminal alkene monomer and (ii) a tertiary amine-containing fluorinated monomer comprising at least one of a vinyl amine, a substituted vinyl amine, an allyl amine, a substituted allyl amine, and combinations thereof.
A gas turbine engine system, comprising: a gas turbine engine including a compressor, a combustor, and a turbine disposed in within a turbine housing, the combustor disposed downstream of the compressor and defining a combustor inlet plenum, the combustor including a combustion chamber and a plurality of combustor cooling holes that provide fluid communication between the combustor inlet plenum and the combustion chamber; characterized in that the gas turbine engine system comprises: a differential pressure sensor coupled to the combustor, the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes. a gas turbine engine including a compressor, a combustor, and a turbine disposed in within a turbine housing, the combustor disposed downstream of the compressor and defining a combustor inlet plenum, the combustor including a combustion chamber and a plurality of combustor cooling holes that provide fluid communication between the combustor inlet plenum and the combustion chamber; characterized in that the gas turbine engine system comprises: a differential pressure sensor coupled to the combustor, the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes. a differential pressure sensor coupled to the combustor, the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes.
Inner container for a household refrigerator, wherein walls (4, 9, 10, 11, 12, 13, 14) of the inner container delimit a receiving space for food, wherein the inner container comprises at least one container part (5, 6) by which at least one wall (4, 10, 12, 14) delimiting the receiving space is formed, wherein an edge of the at least one container part (5, 6) adjoins a further, separate functional component which comprises at least one functional unit (27, 35, 39, 40, 42, 43, 45) which can be used to operate the household refrigerator, wherein at least a partial region of one of the walls (4, 9, 10, 11, 12, 13, 14) of the inner container delimiting the receiving space is also formed by the functional component, characterised in that the functional component has a U-profile in cross-section, wherein part of a rear wall of the inner container is formed by a back of the functional component, part of an upper wall of the inner container is formed by a first leg of the functional component connected to the back and part of a floor of the inner container is formed by a second leg of the functional component connected to the back.
A transmission unit for a vehicle, comprising: a plurality of input shafts (11, 12), each of the input shafts having a shift driving gear thereon; a plurality of output shafts (21, 22), wherein each of the output shafts (21, 22) has a shift driven gear configured to mesh with a corresponding shift driving gear; a generator gear disposed on one of the output shafts (21, 22); a motor power shaft; a first motor power shaft gear disposed on the motor power shaft and configured to rotate together with generator gear; a second motor power shaft gear disposed on the motor power shaft and configured to rotate together with one of the shift driven gears; a reverse idler gear; and a reverse output gear configured to rotate together with one of the shift driving gears via the reverse idler gear, characterized in that the second motor power shaft gear is configured to mesh with the one of the shift driven gears directly. a plurality of input shafts (11, 12), each of the input shafts having a shift driving gear thereon; a plurality of output shafts (21, 22), wherein each of the output shafts (21, 22) has a shift driven gear configured to mesh with a corresponding shift driving gear; a generator gear disposed on one of the output shafts (21, 22); a motor power shaft; a first motor power shaft gear disposed on the motor power shaft and configured to rotate together with generator gear; a second motor power shaft gear disposed on the motor power shaft and configured to rotate together with one of the shift driven gears; a reverse idler gear; and a reverse output gear configured to rotate together with one of the shift driving gears via the reverse idler gear, characterized in that the second motor power shaft gear is configured to mesh with the one of the shift driven gears directly.
A urinary dysfunction treatment apparatus comprising: an implantable constriction device configured to constrict at least one portion of the tissue wall of a patient's urethra, ureter, renal pelvis or urine bladder to at least restrict the flow of urine, a control unit (304b, 315) for controlling the constriction device, an external source of energy adapted to be positioned outside the patent, adapted to transmit wireless energy, an internal energy receiver adapted to receive wireless energy transmitted by the external source of energy, and directly or indirectly supply received energy to energy consuming components of the apparatus, an energy source selected from the list consisting of an accumulator, rechargeable battery and a capacitor, in communication with the internal energy receiver and the control unit (304b, 315), for accumulating received energy for later use by energy consuming components of the apparatus, and a temperature sensor in communication with the control unit (304b, 315) for measuring a temperature reflecting a currently required amount of energy of the energy consuming components of the apparatus or of the energy source, wherein the temperature sensor is configured to provide feedback to the control unit (304b, 315) such that the control unit (304b, 315) can control the amount of energy transferred to the energy consuming parts of the apparatus or to the energy source based on said feedback, for avoiding excessive heating. an implantable constriction device configured to constrict at least one portion of the tissue wall of a patient's urethra, ureter, renal pelvis or urine bladder to at least restrict the flow of urine, a control unit (304b, 315) for controlling the constriction device, an external source of energy adapted to be positioned outside the patent, adapted to transmit wireless energy, an internal energy receiver adapted to receive wireless energy transmitted by the external source of energy, and directly or indirectly supply received energy to energy consuming components of the apparatus, an energy source selected from the list consisting of an accumulator, rechargeable battery and a capacitor, in communication with the internal energy receiver and the control unit (304b, 315), for accumulating received energy for later use by energy consuming components of the apparatus, and a temperature sensor in communication with the control unit (304b, 315) for measuring a temperature reflecting a currently required amount of energy of the energy consuming components of the apparatus or of the energy source, wherein the temperature sensor is configured to provide feedback to the control unit (304b, 315) such that the control unit (304b, 315) can control the amount of energy transferred to the energy consuming parts of the apparatus or to the energy source based on said feedback, for avoiding excessive heating.
A compound having the formula: wherein ring A, ring B, ring C and ring D are each independently a 5- or 6-membered carbocyclic or heterocyclic ring; wherein L 1 and L 2 are independently selected from the group consisting of a single bond, BR, NR, O, Se, C=O, S=O, SO 2, CRR', SiRR', and GeRR'; wherein n 1 is 0 or 1; wherein n 2 is 0 or 1; wherein n 1 +n 2 is at least equal to 1; wherein Z 1 and Z 2 are independently a nitrogen atom or a carbon atom; wherein R 1, R 2, R 3, R 4, and R 7 may represent mono-, di-, tri-, or tetra-substitutions; wherein R 1 is optionally fused to ring A; wherein R 3 is optionally fused to ring B; wherein R 4 is optionally fused to ring C; wherein R 7 is optionally fused to ring D; wherein R 3 and R 4 are optionally joined to form into a ring; wherein at least one of ring B and ring C is a 5-membered carbocyclic or heterocyclic ring; wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; and wherein at least one of R 5 and R 6 is not hydrogen or deuterium. wherein ring A, ring B, ring C and ring D are each independently a 5- or 6-membered carbocyclic or heterocyclic ring; wherein L 1 and L 2 are independently selected from the group consisting of a single bond, BR, NR, O, Se, C=O, S=O, SO 2, CRR', SiRR', and GeRR'; wherein n 1 is 0 or 1; wherein n 2 is 0 or 1; wherein n 1 +n 2 is at least equal to 1; wherein Z 1 and Z 2 are independently a nitrogen atom or a carbon atom; wherein R 1, R 2, R 3, R 4, and R 7 may represent mono-, di-, tri-, or tetra-substitutions; wherein R 1 is optionally fused to ring A; wherein R 3 is optionally fused to ring B; wherein R 4 is optionally fused to ring C; wherein R 7 is optionally fused to ring D; wherein R 3 and R 4 are optionally joined to form into a ring; wherein at least one of ring B and ring C is a 5-membered carbocyclic or heterocyclic ring; wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; and wherein at least one of R 5 and R 6 is not hydrogen or deuterium.
An image sensor, comprising: a first substrate that includes a plurality of pixels each having a photoelectric conversion unit that generates an electric charge through photoelectric conversion executed on light, and each outputting a first signal based upon the electric charge and a second signal, the second signal being a reset noise signal from said pixel; a second substrate that is laminated on the first substrate and including a plurality of storage units, each of the storage units disposed in correspondence to one of the pixels and storing the first signal and the second signal of the respective pixel, each having been converted to a digital signal; a third substrate that is laminated on the second substrate and including control units which are each disposed in correspondence to one of the pixels and control a respective operation unit, wherein the digital signals stored in the plurality of storage units are output via the third substrate to a fourth substrate; and the fourth substrate that is laminated on the third substrate and includes the operation units each of which is disposed in correspondence to one of the pixels and that executes correlated double sampling through subtraction to generate a third signal by using the first signal and the second signal each stored in the storage unit and each having been converted to a digital signal for removing a reset noise from the first signal. a first substrate that includes a plurality of pixels each having a photoelectric conversion unit that generates an electric charge through photoelectric conversion executed on light, and each outputting a first signal based upon the electric charge and a second signal, the second signal being a reset noise signal from said pixel; a second substrate that is laminated on the first substrate and including a plurality of storage units, each of the storage units disposed in correspondence to one of the pixels and storing the first signal and the second signal of the respective pixel, each having been converted to a digital signal; a third substrate that is laminated on the second substrate and including control units which are each disposed in correspondence to one of the pixels and control a respective operation unit, wherein the digital signals stored in the plurality of storage units are output via the third substrate to a fourth substrate; and the fourth substrate that is laminated on the third substrate and includes the operation units each of which is disposed in correspondence to one of the pixels and that executes correlated double sampling through subtraction to generate a third signal by using the first signal and the second signal each stored in the storage unit and each having been converted to a digital signal for removing a reset noise from the first signal.
A method for digital subscriber line initialization, comprising: receiving, by a subscriber side transceiver on a showtime line, a first notification message sent by a vectoring control entity, VCE, wherein the first notification message comprises first indication information, the first indication information indicates at least one first index, and the at least one first index is used to indicate that an element of the at least one first index in a joining uplink pilot sequence of a subscriber side transceiver on a joining line is 1 or -1; converting a first uplink pilot sequence of the subscriber side transceiver on the showtime line into a second uplink pilot sequence according to the first notification message, wherein an element of the at least one first index in the second uplink pilot sequence is zero; and sending the second uplink pilot sequence to a central office transceiver on the showtime line, wherein the converting a first uplink pilot sequence of the subscriber side transceiver on the showtime line into a second uplink pilot sequence according to the first notification message comprises: modifying a non-zero element of the at least one first index in the first uplink pilot sequence to zero according to the first indication information. receiving, by a subscriber side transceiver on a showtime line, a first notification message sent by a vectoring control entity, VCE, wherein the first notification message comprises first indication information, the first indication information indicates at least one first index, and the at least one first index is used to indicate that an element of the at least one first index in a joining uplink pilot sequence of a subscriber side transceiver on a joining line is 1 or -1; converting a first uplink pilot sequence of the subscriber side transceiver on the showtime line into a second uplink pilot sequence according to the first notification message, wherein an element of the at least one first index in the second uplink pilot sequence is zero; and sending the second uplink pilot sequence to a central office transceiver on the showtime line, wherein the converting a first uplink pilot sequence of the subscriber side transceiver on the showtime line into a second uplink pilot sequence according to the first notification message comprises: modifying a non-zero element of the at least one first index in the first uplink pilot sequence to zero according to the first indication information.