mhurhangee/ep-ind-claims huggingface dataset:
A measurement apparatus for measuring electrical measurements, comprising: a display; a measurement device adapted to display a dataset related to a measurement on a predetermined position on the display, and acquire a dataset related to the measurement which is entered on the predetermined position on the display; and a processing device adapted to acquire the dataset displayed on the predetermined position of the display by the measurement device and process the acquired dataset, characterised in that the data processing device is adapted to read out a display memory of the display in order to acquire the dataset displayed by the measurement device. a display; a measurement device adapted to display a dataset related to a measurement on a predetermined position on the display, and acquire a dataset related to the measurement which is entered on the predetermined position on the display; and a processing device adapted to acquire the dataset displayed on the predetermined position of the display by the measurement device and process the acquired dataset, characterised in that the data processing device is adapted to read out a display memory of the display in order to acquire the dataset displayed by the measurement device.
An inner rear fender structure for a motorcycle comprising: a swing arm supported by a pivot mounted to a body frame, and a rear tire supported by said swing arm at the rear end of the motorcycle and, an inner rear fender mounted to said swing arm covering a front portion of said rear tire, wherein said inner rear fender structure comprises a swing arm shape portion designed to take a shape of said swing arm as if it forms part of said swing arm; and an inner rear fender portion mounted close to outer surface of the front portion of said rear tire; characterised in that said inner rear fender structure comprises: a groove portion disposed between said swing arm shape portion and said inner rear fender portion, a ridge structure extending from said groove portion to the rear end of said inner rear fender portion, wherein said ridge structure comprises a pair of ridges (330L, R) formed symmetrically in a side direction and on the upper surface of said inner rear fender portion, and a protrusion formed between said pair of ridges (330L,R) and extending rearward from said swing arm shape portion, wherein said groove portion is formed in the same outline as the protrusion. a swing arm supported by a pivot mounted to a body frame, and a rear tire supported by said swing arm at the rear end of the motorcycle and, an inner rear fender mounted to said swing arm covering a front portion of said rear tire, wherein said inner rear fender structure comprises a swing arm shape portion designed to take a shape of said swing arm as if it forms part of said swing arm; and an inner rear fender portion mounted close to outer surface of the front portion of said rear tire; characterised in that said inner rear fender structure comprises: a groove portion disposed between said swing arm shape portion and said inner rear fender portion, a ridge structure extending from said groove portion to the rear end of said inner rear fender portion, wherein said ridge structure comprises a pair of ridges (330L, R) formed symmetrically in a side direction and on the upper surface of said inner rear fender portion, and a protrusion formed between said pair of ridges (330L,R) and extending rearward from said swing arm shape portion, a groove portion disposed between said swing arm shape portion and said inner rear fender portion, a ridge structure extending from said groove portion to the rear end of said inner rear fender portion, wherein said ridge structure comprises a pair of ridges (330L, R) formed symmetrically in a side direction and on the upper surface of said inner rear fender portion, and a protrusion formed between said pair of ridges (330L,R) and extending rearward from said swing arm shape portion, wherein said groove portion is formed in the same outline as the protrusion.
A pump comprising a stator, a rotor comprising at least one impeller, and an axial balancing device arranged on at least one impeller of the rotor in which a fluid duct passes, said device comprising for each involved wheel in this device a balancing chamber extending between a wall of said involved wheel and the stator, and a passage arranged between said involved wheel and the stator, allowing evacuation of fluid from said fluid duct to said balancing chamber; said rotor having slight axial clearance allowing limited axial shift; said passage comprising an upstream nozzle and a downstream nozzle, both axially variable; said axial balancing device being characterised in that the upstream nozzle and the downstream nozzle extend between two walls (141,142;161,162) in crown opposite to one another with a positive, zero or negative overlap, respectively of the involved wheel and of the stator, and said passage further comprises an intermediate annular chamber arranged between walls (151,152) of the involved wheel and of the stator, opening downstream of the upstream nozzle and upstream of the downstream nozzle of said passage.
Fluid valve for influencing a fluid flow, comprising a valve housing, in which an actuator movable between a first and a second functional position is accommodated, a fluid passage, which passes through a region of the valve housing and terminates at a valve seat in the valve housing, and a sealing means, which is located on the actuator and designed for temporarily sealing the valve seat depending on the functional position of the actuator, wherein the actuator is assigned a plastically deformable adjusting means (11; 31; 41; 51; 61) designed to influence the actuator in order to facilitate an adjustment of a position of the sealing means in at least one of the functional positions of the actuator, wherein the adjusting means is designed as a position-variable abutment for the actuator, wherein the adjusting means (11; 31; 41; 51; 61) is designed to change a contact location of the abutment on the actuator by means of an energy beam, in particular a laser beam.
An internal combustion engine system comprising an internal combustion engine, an exhaust system, an exhaust gas recirculation circuit and a turbo- charger comprising a first turbine interacting with a first compressor for charging air to the internal combustion engine, wherein an exhaust gas recirculation passage is arranged to divert exhaust gases from the internal combustion engine upstream the first turbine and to debouch the exhaust gases downstream the first compressor, wherein the internal combustion engine system comprises a bleed air channel which is located to divert compressed air at a location in or downstream from the first compressor and upstream of the internal combustion engine, characterised in that a second turbine is arranged in the bleed air channel to receive bleed air from the bleed air channel to recover energy from the bleed air channel, and in that the bleed air is made not to come in contact with unpurified exhaust gases.
Coil system for an electromagnetic flowmeter with a coil and core laminations (6, 7) guided through the coil, characterized in that the core laminations (6, 7) have the same shape and size, wherein each core lamination (6, 7) has a first and a second leg (9, 10), which are connected to one another in the shape of an "L", wherein at least a first core lamination and a second core lamination are guided through the coil in such a way that the first leg of the first core lamination and the first leg of the second core lamination are parallel to one another and in such a way that the second leg of the first core lamination and the second leg of the second core lamination are parallel to one another, wherein the second leg of the first core lamination and the second leg of the second core lamination are arranged on different sides of the coil, wherein the core laminations (6, 7) are guided through the coil in stacks of several core laminations (6, 7).
A power supply system mounted in a vehicle, comprising: a chargeable/dischargeable energy storage unit ( 12, 40); and a power conversion unit ( 32, 36, 22) selectively performing first power conversion converting power supplied from a power supply external to the vehicle into charging power for said energy storage unit ( 12, 40), and second power conversion converting power stored in said energy storage unit ( 12, 40) into power output to an electric load external to the vehicle, characterized in that when charging of said energy storage unit ( 12, 40) from the outside of the vehicle is performed by said power conversion unit ( 32, 36, 22) in a predetermined situation which includes a first situation or a second situation, said power conversion unit ( 32, 36, 22) performs said first power conversion such that a state quantity indicating a state of charge of said energy storage unit ( 12, 40) becomes greater than usual, such as when not in the predetermined situation, the first situation being a predetermined emergency, wherein failure of a commercial system power supply is expected, wherein said electric load is connected to said commercial system power supply, such that if said commercial system power supply fails, said electric load can receive power from said vehicle by performing said second power conversion, and the second situation being a situation where the power or the energy amount to be output to the outside of the vehicle by performing said second power conversion is increased in accordance with a request by a user. a chargeable/dischargeable energy storage unit ( 12, 40); and a power conversion unit ( 32, 36, 22) selectively performing first power conversion converting power supplied from a power supply external to the vehicle into charging power for said energy storage unit ( 12, 40), and second power conversion converting power stored in said energy storage unit ( 12, 40) into power output to an electric load external to the vehicle, characterized in that when charging of said energy storage unit ( 12, 40) from the outside of the vehicle is performed by said power conversion unit ( 32, 36, 22) in a predetermined situation which includes a first situation or a second situation, said power conversion unit ( 32, 36, 22) performs said first power conversion such that a state quantity indicating a state of charge of said energy storage unit ( 12, 40) becomes greater than usual, such as when not in the predetermined situation, the first situation being a predetermined emergency, wherein failure of a commercial system power supply is expected, wherein said electric load is connected to said commercial system power supply, such that if said commercial system power supply fails, said electric load can receive power from said vehicle by performing said second power conversion, and the second situation being a situation where the power or the energy amount to be output to the outside of the vehicle by performing said second power conversion is increased in accordance with a request by a user.
A system comprising: an energy harvesting circuit configured to collect ambient energy and to use the collected ambient energy to charge a buffer capacitor (Cs); a control circuit configured to alternatingly connect and disconnect an electric motor for moving a latch of an electromechanical lock, and the buffer capacitor (Cs) such that a capacitor voltage (Vs) provided by the buffer capacitor (Cs) is applied to the electrical motor in a discharging phase, in which the electric motor is connected to the buffer capacitor (Cs) and the capacitor voltage (Vs) decreases, and that the electric motor is disconnected from the buffer capacitor (Cs) in a charging phase so that the capacitor voltage again increases, wherein the durations of the charging phase and the discharging phase are designed such that the capacitor voltage (Vs) stays above a minimum supply voltage (V STOP) of the electrical motor, and wherein the control circuit is configured to alternatingly connect and disconnect the electrical motor and the buffer capacitor (Cs) until the end of the n th discharging phase, n being a predetermined number. an energy harvesting circuit configured to collect ambient energy and to use the collected ambient energy to charge a buffer capacitor (Cs); a control circuit configured to alternatingly connect and disconnect an electric motor for moving a latch of an electromechanical lock, and the buffer capacitor (Cs) such that a capacitor voltage (Vs) provided by the buffer capacitor (Cs) is applied to the electrical motor in a discharging phase, in which the electric motor is connected to the buffer capacitor (Cs) and the capacitor voltage (Vs) decreases, and that the electric motor is disconnected from the buffer capacitor (Cs) in a charging phase so that the capacitor voltage again increases, wherein the durations of the charging phase and the discharging phase are designed such that the capacitor voltage (Vs) stays above a minimum supply voltage (V STOP) of the electrical motor, and wherein the control circuit is configured to alternatingly connect and disconnect the electrical motor and the buffer capacitor (Cs) until the end of the n th discharging phase, n being a predetermined number.
A dimming control optimization system comprising: a light-emitting sampling module configured to obtain a brightness signal of an illuminator; an integrator module electrically connected with the light-emitting sampling module configured to receive and integrate the brightness signal to generate a direct-current sampling signal; an error amplifying module electrically connected with the integrator module configured to receive the sampling signal and a dimming reference voltage provided externally to output a compensation voltage, characterized in that the dimming control optimization system further comprises: a comparator module electrically connected with the error amplifying module configured to receive the compensation voltage to output a control reference signal based on a relationship between the compensation voltage and a threshold voltage; a digital dimming module configured to receive a finite-peak periodic continuous wave input signal and the compensation voltage to generate a pulse-width modulated digital dimming control signal; and a power supply transitioning module electrically connected with the comparator module and the digital dimming module configured to receive the control reference signal and the PWM digital dimming control signal generated by the digital dimming module to output the control reference signal with periods synchronized to the PWM digital dimming control signal as a dimming control signal for adjusting the brightness of the illuminator. a comparator module electrically connected with the error amplifying module configured to receive the compensation voltage to output a control reference signal based on a relationship between the compensation voltage and a threshold voltage; a digital dimming module configured to receive a finite-peak periodic continuous wave input signal and the compensation voltage to generate a pulse-width modulated digital dimming control signal; and a power supply transitioning module electrically connected with the comparator module and the digital dimming module configured to receive the control reference signal and the PWM digital dimming control signal generated by the digital dimming module to output the control reference signal with periods synchronized to the PWM digital dimming control signal as a dimming control signal for adjusting the brightness of the illuminator.
Cable reel, in particular cable drum, with at least one drum body, for winding up an electrical cable and having at least one drum disc (17a, 17b) made of electrically conductive material, with an inside and an outside, wherein the drum disc (17a, 17b) has an insulation of electrically non-conductive material, wherein the insulation includes an inner insulating disc in front of the inside, characterised in that the insulation includes an outer insulating disc in front of the outside, wherein inner and outer insulating discs (33, 34) are mounted by means of mounting means of electrically non-conductive material, in such a way that an outer edge of the drum disc (17a, 17b) is also insulated.
A process for the recovery of an alkylene glycol from an aqueous stream comprising the alkylene glycol and the corresponding dialkylene glycol, said process comprising the steps of providing the aqueous stream comprising the alkylene glycol and the corresponding dialkylene glycol, providing a first solvent stream, combining said aqueous stream comprising the alkylene glycol and the corresponding dialkylene glycol with said first solvent stream and recovering at least a portion of the alkylene glycol by liquid-liquid extraction, wherein said solvent stream comprises an amine.
Bridge supporting device (110, 120) for supporting a bridge segment, wherein the bridge supporting device (110, 120) has at least one wheel which allows the bridge supporting device (110, 120) to move on a provisional structure, in particular a supporting or advancing scaffold, arranged below the bridge segment, characterized in that the wheels are height-adjustable and can be extended into a movement position in which the wheels raise one or more chassis of the bridge supporting device (110, 120) and allow a movement on the provisional structure, and moreover can be retracted into a supporting position in which one or more chassis of the bridge supporting device (110, 120) are supported on the provisional structure and the wheels are completely or - compared with the movement position - at least partially relieved of load, the bridge supporting device (110, 120) comprises two supporting modules (111, 112, 121, 122) which can be connected to one another and separated from one another and which each comprise a chassis and one or more wheels and can be moved individually on the provisional structure in the separated state, each of the supporting modules (111, 112, 121, 122) has a respective crossmember which can be connected by its crossmember end remote from the chassis to a crossmember end of the crossmember of the respective other of the two supporting modules (111, 112, 121, 122), in particular by means of a bolt connection, and each of the two supporting modules (111, 112, 121, 122) has a respective rotary frame which allows at least one component of the respective supporting module (111, 112, 121, 122), in particular a crossmember of the respective supporting module (111, 112, 121, 122), to be rotated relative to the chassis.
A method comprising: executing a transactional memory, TM, transaction in a first thread, the TM transaction executed in an unbounded transactional memory, UTM, system configured to execute first transactions in hardware responsive to determining that a write data to be performed in the TM transaction is sized to fit within a first buffer of a cache memory (150, 151) of a processor; during the first transactions, determining that a block including a location to be written to has not already been buffered in the cache memory; and acquiring a write monitor on the block to obtain ownership of the block at an encounter time in which data at the location of the block in the first buffer of the cache memory (150, 151) of the processor is updated, and acquiring a write lock on the block at the encounter time, wherein the write lock is a software write lock present in a memory and associated with the location to be written to, wherein acquiring the write monitor includes updating a monitor indicator state information of the first buffer of the cache memory (150, 151) of the processor corresponding to the first thread to indicate ownership of the write monitor on the block by the first thread; updating the block in the first buffer of the cache memory (150, 151) with the write data; and executing second transactions in software by performing an unbounded write responsive to determining that the write data to be performed in the TM transaction is not sized to fit in the first hardware buffer of the cache memory (150, 151) of the processor. executing a transactional memory, TM, transaction in a first thread, the TM transaction executed in an unbounded transactional memory, UTM, system configured to execute first transactions in hardware responsive to determining that a write data to be performed in the TM transaction is sized to fit within a first buffer of a cache memory (150, 151) of a processor; during the first transactions, determining that a block including a location to be written to has not already been buffered in the cache memory; and acquiring a write monitor on the block to obtain ownership of the block at an encounter time in which data at the location of the block in the first buffer of the cache memory (150, 151) of the processor is updated, and acquiring a write lock on the block at the encounter time, wherein the write lock is a software write lock present in a memory and associated with the location to be written to, wherein acquiring the write monitor includes updating a monitor indicator state information of the first buffer of the cache memory (150, 151) of the processor corresponding to the first thread to indicate ownership of the write monitor on the block by the first thread; updating the block in the first buffer of the cache memory (150, 151) with the write data; and executing second transactions in software by performing an unbounded write responsive to determining that the write data to be performed in the TM transaction is not sized to fit in the first hardware buffer of the cache memory (150, 151) of the processor.
A remote monitoring system for an elevator system, comprising: at least one remotely operable intermediate device, and a monitoring unit for remotely controlling operation of the at least one intermediate device, wherein the monitoring unit is configured to: control at least one intermediate device to generate a remote command for controlling at least one operation of the elevator system; monitor a response of the elevator system to the remote command, characterized in that the at least one intermediate device is electrically connected to bridge a switch of an elevator button to generate the remote command. at least one remotely operable intermediate device, and a monitoring unit for remotely controlling operation of the at least one intermediate device, wherein the monitoring unit is configured to: control at least one intermediate device to generate a remote command for controlling at least one operation of the elevator system; monitor a response of the elevator system to the remote command, characterized in that the at least one intermediate device is electrically connected to bridge a switch of an elevator button to generate the remote command. control at least one intermediate device to generate a remote command for controlling at least one operation of the elevator system; monitor a response of the elevator system to the remote command, characterized in that the at least one intermediate device is electrically connected to bridge a switch of an elevator button to generate the remote command.