mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for compressing fluids comprising: a prime mover having at least one drive shaft mechanically coupled thereto; a first compressor coupled to the prime mover via a first drive shaft ; a second compressor coupled to the prime mover via a second drive shaft ; a third compressor coupled to the prime mover via a third drive shaft ; a first conduit for connection to a source of fluid to be compressed; a pair of parallel conduits each extending from the first conduit to respective inlets for any two of the three compressors; and a pair of parallel output conduits each extending from an outlet of the any two compressors, wherein the parallel output conduits convey compressed fluids; and wherein the compressed fluids are directed through one or more compressed fluid conduits to an inlet of the remaining compressor ; characterized in that the apparatus further comprises a second conduit for connection to a source of fluid to be compressed, the second conduit having a pair of parallel conduits each extending to a respective side load inlet of any two of the three compressors . a prime mover having at least one drive shaft mechanically coupled thereto; a first compressor coupled to the prime mover via a first drive shaft ; a second compressor coupled to the prime mover via a second drive shaft ; a third compressor coupled to the prime mover via a third drive shaft ; a first conduit for connection to a source of fluid to be compressed; a pair of parallel conduits each extending from the first conduit to respective inlets for any two of the three compressors; and a pair of parallel output conduits each extending from an outlet of the any two compressors, wherein the parallel output conduits convey compressed fluids; and wherein the compressed fluids are directed through one or more compressed fluid conduits to an inlet of the remaining compressor ; characterized in that the apparatus further comprises a second conduit for connection to a source of fluid to be compressed, the second conduit having a pair of parallel conduits each extending to a respective side load inlet of any two of the three compressors .
A bandwidth allocation method, comprising: receiving Discontinuous Reception, DRX, indication information, the DRX indication information being used for a terminal device to determine a working bandwidth to be used within a DRX cycle; and determining the working bandwidth to be used within the DRX cycle according to the DRX indication information, characterized in that the DRX indication information is carried in downlink control information, DCI, the DRX indication information is used to indicate a bandwidth-part allocation index number, the bandwidth-part allocation index number is one of multiple bandwidth-part allocation index numbers, and different bandwidth-part allocation index numbers correspond to different bandwidth-part allocations in multiple types of bandwidth-part allocations; wherein determining the working bandwidth to be used within the DRX cycle according to the DRX indication information comprises: determining the working bandwidth to be used within the DRX cycle according to a bandwidth-part allocation corresponding to the bandwidth-part allocation index number, wherein the bandwidth-part allocation is for the terminal device to be used within one DRX cycle. receiving Discontinuous Reception, DRX, indication information, the DRX indication information being used for a terminal device to determine a working bandwidth to be used within a DRX cycle; and determining the working bandwidth to be used within the DRX cycle according to the DRX indication information, characterized in that the DRX indication information is carried in downlink control information, DCI, the DRX indication information is used to indicate a bandwidth-part allocation index number, the bandwidth-part allocation index number is one of multiple bandwidth-part allocation index numbers, and different bandwidth-part allocation index numbers correspond to different bandwidth-part allocations in multiple types of bandwidth-part allocations; wherein determining the working bandwidth to be used within the DRX cycle according to the DRX indication information comprises: determining the working bandwidth to be used within the DRX cycle according to a bandwidth-part allocation corresponding to the bandwidth-part allocation index number, wherein the bandwidth-part allocation is for the terminal device to be used within one DRX cycle.
An electrical power generating assembly for a wind turbine comprising: a gearbox comprising a gearbox output shaft, a generator comprising a rotor that is coupled to the gearbox output shaft; and a current measuring module located between the gearbox and the generator , the current measuring module comprising: an electrical pickup mounted to the electrical power generating assembly, wherein the electrical pickup includes an electrical contact that engages with a slip ring associated with the rotor ; a first current measuring device mounted with respect to the electrical pickup to detect current flowing at least through the electrical pickup; and a second current measuring device mounted with respect to the electrical pickup to detect current flowing through at least a component associated with the gearbox output shaft. a gearbox comprising a gearbox output shaft, a generator comprising a rotor that is coupled to the gearbox output shaft; and a current measuring module located between the gearbox and the generator , the current measuring module comprising: an electrical pickup mounted to the electrical power generating assembly, wherein the electrical pickup includes an electrical contact that engages with a slip ring associated with the rotor ; a first current measuring device mounted with respect to the electrical pickup to detect current flowing at least through the electrical pickup; and a second current measuring device mounted with respect to the electrical pickup to detect current flowing through at least a component associated with the gearbox output shaft. an electrical pickup mounted to the electrical power generating assembly, wherein the electrical pickup includes an electrical contact that engages with a slip ring associated with the rotor ; a first current measuring device mounted with respect to the electrical pickup to detect current flowing at least through the electrical pickup; and a second current measuring device mounted with respect to the electrical pickup to detect current flowing through at least a component associated with the gearbox output shaft.
A method for attenuating out of band energy emitted from a seismic source used in a marine seismic survey, comprising: disposing the seismic source including a gas supply in a body of water; and releasing a gas from the gas supply into a volume of water surrounding the seismic source, and characterised in that the released gas displaces the volume of water at a rate which is a third differential of the volume of water displaced by the gas with respect to time and which is less than 2.9 x 10 6 cubic-meters per cubic-second. disposing the seismic source including a gas supply in a body of water; and releasing a gas from the gas supply into a volume of water surrounding the seismic source, and characterised in that the released gas displaces the volume of water at a rate which is a third differential of the volume of water displaced by the gas with respect to time and which is less than 2.9 x 10 6 cubic-meters per cubic-second.
A method for monitoring a motor within a seat assembly in an automotive vehicle, the method comprising the steps of: measuring raw current values drawn by the motor to reposition the seat assembly ; temporally dividing the raw current values into sections based on size and variations in the raw current values; filtering the raw current values in each section to obtain filtered current values; characterised by determining a median value of the filtered current values for each section to obtain a plurality of sequential median values; determining a trend in the plurality of sequential median values; removing the trend from the plurality of sequential median values to obtain detrended values; determining a difference in magnitude between successive detrended values to obtain delta values (D); identifying a plurality of peaks in the delta values (D); determining which of the plurality of peaks has an amplitude greater than a threshold , wherein the peaks having an amplitude greater than the threshold correspond to detected local peaks within the filtered current values; and determining a rotational position or a speed based on the detected local peaks . measuring raw current values drawn by the motor to reposition the seat assembly ; temporally dividing the raw current values into sections based on size and variations in the raw current values; filtering the raw current values in each section to obtain filtered current values; characterised by determining a median value of the filtered current values for each section to obtain a plurality of sequential median values; determining a trend in the plurality of sequential median values; removing the trend from the plurality of sequential median values to obtain detrended values; determining a difference in magnitude between successive detrended values to obtain delta values (D); identifying a plurality of peaks in the delta values (D); determining which of the plurality of peaks has an amplitude greater than a threshold , wherein the peaks having an amplitude greater than the threshold correspond to detected local peaks within the filtered current values; and determining a rotational position or a speed based on the detected local peaks .
An arrangement comprising a tower mounted high voltage gas-insulated switchgear and a high voltage transmission tower , whereby the tower mounted high voltage gas-insulated switchgear comprises a supporting structure connected to the lattice structure of the high voltage transmission tower , a first and a second gas-insulated combined interruption and disconnection modules respectively comprising, for each phase, a first and a second combined interruption and disconnection units, each of said first and second combined interruption and disconnection units comprising a first and a second gas-tight casing developing along corresponding first and second reference axis and each housing: at least a first terminal for input/output connections; a first combined disconnecting and earthing switch having a first fixed contact operatively coupled to said first terminal , a second fixed contact at ground potential and a first movable contact operatively couplable to said first and second fixed contacts for disconnecting and earthing operations; a fast earthing switch interposed between said first fixed contact and said first terminal ; a circuit breaker unit electrically connected to said first movable contact of said first combined disconnecting and earthing switch and to a second combined disconnecting and earthing switch ; said second combined disconnecting and earthing switch having a third fixed contact operatively coupled to a second terminal for input/output connections, a fourth fixed contact at ground potential and a second movable contact operatively couplable to said third and fourth fixed contacts for disconnecting and earthing operations and electrically connected to said circuit breaker unit ; said first terminal of said first combined interruption and disconnection unit being electrically connected to a first electrical line , said first terminal of said second interruption and disconnection unit being electrically connected to a second electrical line ; the second terminals of said first and second combined interruption and disconnection units being electrically coupled to each other; said high voltage switchgear being mounted on said supporting structure within the lattice structure of said high voltage transmission tower , the first and second reference axis of said first and second casings being aligned in the same direction.
Rectifier for a refrigerant vapor generator , said rectifier being adapted to modify the percentage of a refrigerant substance present in vapor flows (V) generated by boiling a liquid solution (L) comprising at least one absorbent substance and said refrigerant substance absorbed and wherein it comprises at least: - a casing which develops along a substantially vertical reference axis (X) and includes at least a first transverse duct designed to allow the introduction of flows of said liquid solution (L) to be boiled; - at least a first body which is housed in said casing below said first duct so as to be crossed by flows of the liquid solution (L) to be boiled which, going downwards, wet its surfaces, and by vapor flows (V) generated by boiling which, going upwards, exchange heat with the solution itself which wets the surfaces of the first body , causing at the same time evaporation of refrigerant from the liquid solution (L) and the condensation of at least a part of the absorbent substance contained in said vapor streams (V) going upwards, characterized in that the first body consists of an open cell ceramic foam. - a casing which develops along a substantially vertical reference axis (X) and includes at least a first transverse duct designed to allow the introduction of flows of said liquid solution (L) to be boiled; - at least a first body which is housed in said casing below said first duct so as to be crossed by flows of the liquid solution (L) to be boiled which, going downwards, wet its surfaces, and by vapor flows (V) generated by boiling which, going upwards, exchange heat with the solution itself which wets the surfaces of the first body , causing at the same time evaporation of refrigerant from the liquid solution (L) and the condensation of at least a part of the absorbent substance contained in said vapor streams (V) going upwards, characterized in that the first body consists of an open cell ceramic foam.
A mass spectrometer and/or ion mobility spectrometer comprising: a first device configured to generate aerosol, smoke or vapour from a target to be analysed, said aerosol, smoke or vapour comprising analyte ; a collision assembly (209; 215; 226) located within a vacuum chamber , the collision assembly having a substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface; and (i) a device arranged and adapted to direct the aerosol, smoke or vapour onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions ; or (ii) a device arranged and adapted to supply a matrix to the aerosol, smoke or vapour so as to cause said analyte to be diluted by or dissolved in the matrix , and a device arranged and adapted to accelerate droplets of the diluted or dissolved analyte onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions. a first device configured to generate aerosol, smoke or vapour from a target to be analysed, said aerosol, smoke or vapour comprising analyte ; a collision assembly (209; 215; 226) located within a vacuum chamber , the collision assembly having a substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface; and (i) a device arranged and adapted to direct the aerosol, smoke or vapour onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions ; or (ii) a device arranged and adapted to supply a matrix to the aerosol, smoke or vapour so as to cause said analyte to be diluted by or dissolved in the matrix , and a device arranged and adapted to accelerate droplets of the diluted or dissolved analyte onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions. (i) a device arranged and adapted to direct the aerosol, smoke or vapour onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions ; or (ii) a device arranged and adapted to supply a matrix to the aerosol, smoke or vapour so as to cause said analyte to be diluted by or dissolved in the matrix , and a device arranged and adapted to accelerate droplets of the diluted or dissolved analyte onto said substantially cylindrical, rod-shaped, coil-shaped, helical or spiral-shaped surface of the collision assembly (209; 215; 226) so as to generate or release a plurality of analyte ions.
A system for creating a magnetic resonance imaging (MRI)-compatible stimulation program for electrical stimulation of a patient using an implantable electrical stimulation system comprising an implantable pulse generator and a lead having a plurality of electrodes, the system for creating the MRI-compatible stimulation program comprising: a processor configured to: receive a first set of stimulation parameters of a first stimulation program, wherein the first set of stimulation parameters indicates a first set of electrodes for delivery of electrical stimulation; generate an MRI-compatible stimulation program based at least in part on the received first set of stimulation parameters, wherein the MRI-compatible stimulation program comprises a second set of stimulation parameters that indicates a second set of electrodes from the plurality of electrodes for delivery of electrical stimulation, wherein generating the MRI-compatible stimulation program comprises modifying the first set of stimulation parameters by the processor to generate the second set of stimulation parameters by at least one of 1) reducing a value of at least one stimulation parameter of the first set of stimulation parameters or 2) replacing, in the first set of electrodes, a case electrode of the electrical stimulation system with at least one of the electrodes of the lead; and initiate a signal that provides the implantable pulse generator of the electrical stimulation system with the MRI-compatible stimulation program for producing electrical stimulation to the patient. receive a first set of stimulation parameters of a first stimulation program, wherein the first set of stimulation parameters indicates a first set of electrodes for delivery of electrical stimulation; generate an MRI-compatible stimulation program based at least in part on the received first set of stimulation parameters, wherein the MRI-compatible stimulation program comprises a second set of stimulation parameters that indicates a second set of electrodes from the plurality of electrodes for delivery of electrical stimulation, wherein generating the MRI-compatible stimulation program comprises modifying the first set of stimulation parameters by the processor to generate the second set of stimulation parameters by at least one of 1) reducing a value of at least one stimulation parameter of the first set of stimulation parameters or 2) replacing, in the first set of electrodes, a case electrode of the electrical stimulation system with at least one of the electrodes of the lead; and initiate a signal that provides the implantable pulse generator of the electrical stimulation system with the MRI-compatible stimulation program for producing electrical stimulation to the patient.
A method for operating a coating unit located after a sheet-fed digital printer on a manufacturing line, comprising the step of: a) as a response to a workpiece entering the coating unit from the printer, dosing coating substance onto a plate cylinder , rotating said plate cylinder to transfer said coating substance onto said workpiece, and transferring said workpiece further on said manufacturing line, characterized in that the method comprises the further step of: b) as a response to a first time limit expiring after transferring said workpiece further without a subsequent workpiece entering the coating unit, stopping the rotation of the plate cylinder . a) as a response to a workpiece entering the coating unit from the printer, dosing coating substance onto a plate cylinder , rotating said plate cylinder to transfer said coating substance onto said workpiece, and transferring said workpiece further on said manufacturing line, characterized in that the method comprises the further step of: b) as a response to a first time limit expiring after transferring said workpiece further without a subsequent workpiece entering the coating unit, stopping the rotation of the plate cylinder .
A tire forming apparatus comprising: a drum spindle body ; a plurality of arms arranged in an annular shape on an outer circumferential side of the drum spindle body ; and pushing means configured to push the arms in a direction approaching an unvulcanized tire member , along an axial direction of the drum spindle body , wherein each of the arms includes: a slidable contact portion provided on one end side of the arm and configured to slidably contact the pushing means ; a press portion provided on an other end side of the arm and configured to come into contact with the unvulcanized tire member and press the unvulcanized tire member ; and characterised by a connecting portion provided between the slidable contact portion and the press portion in an extending direction of the arm and connected to the drum spindle body , on the drum spindle body side with respect to a line segment connecting the slidable contact portion and the press portion, wherein: the slidable contact portion moves in a sliding contact manner on a corresponding slidable contact surface (S) of the pushing means from the outside to the inside in the radial direction of the drum spindle body while receiving a pushing force in the axial direction of the drum spindle body from the corresponding slidable contact surface (S') of the pushing means , thereby an inclination angle of the arm with respect to the axial direction of the drum spindle body increases. a slidable contact portion provided on one end side of the arm and configured to slidably contact the pushing means ; a press portion provided on an other end side of the arm and configured to come into contact with the unvulcanized tire member and press the unvulcanized tire member ; and characterised by a connecting portion provided between the slidable contact portion and the press portion in an extending direction of the arm and connected to the drum spindle body , on the drum spindle body side with respect to a line segment connecting the slidable contact portion and the press portion, wherein: the slidable contact portion moves in a sliding contact manner on a corresponding slidable contact surface (S) of the pushing means from the outside to the inside in the radial direction of the drum spindle body while receiving a pushing force in the axial direction of the drum spindle body from the corresponding slidable contact surface (S') of the pushing means , thereby an inclination angle of the arm with respect to the axial direction of the drum spindle body increases.