mhurhangee/ep-ind-claims huggingface dataset:
Transmission assembly for a motor vehicle with a gearbox, comprising a clutch, a clutch-release device, a reversible rotating electric machine provided with a rotor provided with a central opening, and an intermediate shaft between the clutch and the rotor of the electric machine, the said shaft bearing the clutch-release device at the front and passing into the central opening of the rotor, characterized in that it comprises a dry friction clutch provided with a reaction plate, in that it comprises, at the front, a dual-mass flywheel configured to be fastened to the crankshaft of the combustion engine of the vehicle and to form the reaction plate of the dry friction clutch, and, at the rear, a torsion damper configured to be rotatably connected to the input shaft of the gearbox, and in that the rotor of the electric machine is fastened to the torsion damper and comprises a hub for supporting the rotor that is fastened at the rear end of the intermediate shaft to the torsion damper, the said rotor support hub being extended at the rear by an anti-dust flange.
A vehicle control method, comprising: receiving a first control instruction; sending a first output signal based on the first control instruction, wherein the first output signal is used to instruct a hydraulic parking system to start pressure build-up; sending a second output signal upon the hydraulic parking system reaching a predetermined first state, wherein the second output signal is used to instruct an electronic parking system to start to be pulled up or released; said method being characterized by sending a third output signal upon the electronic parking system reaching a predetermined second state, wherein the third output signal is used to instruct the hydraulic parking system to start to release pressure. receiving a first control instruction; sending a first output signal based on the first control instruction, wherein the first output signal is used to instruct a hydraulic parking system to start pressure build-up; sending a second output signal upon the hydraulic parking system reaching a predetermined first state, wherein the second output signal is used to instruct an electronic parking system to start to be pulled up or released; said method being characterized by sending a third output signal upon the electronic parking system reaching a predetermined second state, wherein the third output signal is used to instruct the hydraulic parking system to start to release pressure.
A vacuum pumping and abatement system for evacuating processing gas from a process chamber and removing noxious substances from the processing gas, comprising: a vacuum pumping arrangement for evacuating the processing gas from the process chamber; a source of compressed air configured for purging the vacuum pumping arrangement during evacuation; and a burner configured to receive the processing gas and the compressed air from the vacuum pumping arrangement and to remove noxious substances therefrom by burning the processing gas in oxygen wherein at least some of the oxygen that supports combustion is derived from the compressed air. a vacuum pumping arrangement for evacuating the processing gas from the process chamber; a source of compressed air configured for purging the vacuum pumping arrangement during evacuation; and a burner configured to receive the processing gas and the compressed air from the vacuum pumping arrangement and to remove noxious substances therefrom by burning the processing gas in oxygen wherein at least some of the oxygen that supports combustion is derived from the compressed air.
A rotational mold designed to shape a soft dough to be used in bakery products such as biscuits, crackers and the like, wherein the mold has more than one mold cavities (1.4.1) in same or different geometrical forms in which the soft dough is to be inserted, a metal drum (1.3) which houses mold discs (1.4) where the mold cavities (1.4.1) are consecutively aligned on the mold disc (1.4) so as to be in accordance with the geometrical form of consecutive mold cavities (1.4.1), characterized in that mold discs (1.4) located on the metal drum (1.3) which are limited by lateral surfaces (1.4.4) having at least one peak point (1.4.2) as a protrusion and at least one trough point (1.4.3) as a recess which is formed along the distance between two mold cavities (1.4.1) wherein the mold discs (1.4) are aligned juxtaposed so as to be the peak point (1.4.2) of one mold disc (1.4) fits to the trough point (1.4.3) of the consecutive mold disc (1.3) without leaving any space between said mold discs (1.4).
Method for thermally expanding a receiving portion of a tool holder which is provided with a central receiving opening for receiving a tool shank in a press fit by means of a induction coil arrangement of a shrink device which supplies the induction coil arrangement with alternating current, said arrangement concentrically surrounding the receiving portion in order to thermally expand it, wherein, for thermal expansion, an attenuation adapter in the form of a sleeve made of non-ferromagnetic metal is radially inserted between the receiving portion of the tool holder and the induction coil arrangement, which concentrically surrounds the receiving portion, in a loose manner for the purpose of operation.
Method for operation of a gas-powered fixing tool, said tool comprising a working chamber in which a piston is slidably mounted for driving a fixing element, a precombustion chamber in which the combustion of a gas is intended to be initiated, and a combustion chamber arranged between the precombustion chamber and the working chamber, said precombustion and combustion chambers being separated from each other by a flap which is movable or deformable from a position in which it ensures a fluidic communication between said precombustion and combustion chambers and a position in which it isolates these chambers from each other, the tool also comprising at least one combusted gas evacuation valve, the method comprising the following steps: a) ignition of the gas in the precombustion chamber, causing an increase in pressure in the precombustion chamber, b) displacement or deformation of said flap because of the increase in pressure in the precombustion chamber above a certain threshold, and passage of the gas into the combustion chamber, c) combustion of said gas in the combustion chamber, causing an increase in pressure in the combustion chamber, d) displacement of said piston from a rest position to a working position because of the increase in pressure in the combustion chamber, e) reverse displacement of said piston from the working position because of a reduced pressure in the combustion chamber, and f) evacuation of combusted gas from the precombustion chamber and/or the combustion chamber via said valve, characterized in that it comprises, between steps d) and f) or e) and f), an additional step of: z) establishment of fluidic communication between said precombustion and combustion chambers, such that a reduced pressure in the precombustion chamber participates in and accelerates the reverse displacement of said piston from the working position to the rest position. a) ignition of the gas in the precombustion chamber, causing an increase in pressure in the precombustion chamber, b) displacement or deformation of said flap because of the increase in pressure in the precombustion chamber above a certain threshold, and passage of the gas into the combustion chamber, c) combustion of said gas in the combustion chamber, causing an increase in pressure in the combustion chamber, d) displacement of said piston from a rest position to a working position because of the increase in pressure in the combustion chamber, e) reverse displacement of said piston from the working position because of a reduced pressure in the combustion chamber, and f) evacuation of combusted gas from the precombustion chamber and/or the combustion chamber via said valve,
A fluid quantity sensor system for sensing a fluid quantity in a fluid tank, comprising: strain sensors (103a, 103b) configured to be disposed in physical communication with the tank to sense strain on portions of the tank, wherein the strain sensors (103a, 103b) include at least a first strain sensor disposed in physical communication with a first portion of the tank, and a second strain sensor disposed in physical communication with the second portion of the tank such that the first strain sensor is configured to sense a strain of the first portion of the tank and the second strain sensor is configured to sense a strain of the second portion of the tank; characterised in that: the first strain sensor and the second strain sensor are positioned such that externally induced stress on a structure forming and/or supporting the tank can be cancelled out such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank; and a weight module is configured to receive strain signals from the first strain sensor and the second strain sensor and to cancel out externally induced stress on a structure forming and/or supporting the tank such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank. strain sensors (103a, 103b) configured to be disposed in physical communication with the tank to sense strain on portions of the tank, wherein the strain sensors (103a, 103b) include at least a first strain sensor disposed in physical communication with a first portion of the tank, and a second strain sensor disposed in physical communication with the second portion of the tank such that the first strain sensor is configured to sense a strain of the first portion of the tank and the second strain sensor is configured to sense a strain of the second portion of the tank; characterised in that: the first strain sensor and the second strain sensor are positioned such that externally induced stress on a structure forming and/or supporting the tank can be cancelled out such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank; and a weight module is configured to receive strain signals from the first strain sensor and the second strain sensor and to cancel out externally induced stress on a structure forming and/or supporting the tank such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank. the first strain sensor and the second strain sensor are positioned such that externally induced stress on a structure forming and/or supporting the tank can be cancelled out such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank; and a weight module is configured to receive strain signals from the first strain sensor and the second strain sensor and to cancel out externally induced stress on a structure forming and/or supporting the tank such that a strain caused by only the fluid in the tank can be determined to determine a weight of the fluid in the tank.
Handpiece for a cosmetic, medical/therapeutic skin phototherapy device, which handpiece is connected to a power and liquid coolant supply unit by a cable and tube connection and comprises - a body which houses, in a removable manner, a cartridge with a window having a light source and its cooling circuit, a cover closing the seat of the cartridge in the body, - a light guide which is connected to the light source by the window of the cartridge and the outlet surface of which is to be applied to or above the surface of the skin to be treated, characterised in that - the seat of the cartridge above the light guide is defined by a base carrying the connection members (520, 530) of the cartridge and by a guide surface, one end of which corresponds to the base and the sides of which are lateral guide rails around the seat of the light guide, and - the cartridge is in the form of a flat housing, one end of which carries a transverse assembly plate which is provided with connection members (421, 422) homologous to those of the base and the sides of which comprise guide ribs for cooperating with the lateral rails of the seat and positioning the cartridge and guiding it in its movement of translation towards its seat for attachment and connection at the end of its travel, and for keeping it connected. - a body which houses, in a removable manner, a cartridge with a window having a light source and its cooling circuit, a cover closing the seat of the cartridge in the body, - a light guide which is connected to the light source by the window of the cartridge and the outlet surface of which is to be applied to or above the surface of the skin to be treated, characterised in that - the seat of the cartridge above the light guide is defined by a base carrying the connection members (520, 530) of the cartridge and by a guide surface, one end of which corresponds to the base and the sides of which are lateral guide rails around the seat of the light guide, and - the cartridge is in the form of a flat housing, one end of which carries a transverse assembly plate which is provided with connection members (421, 422) homologous to those of the base and the sides of which comprise guide ribs for cooperating with the lateral rails of the seat and positioning the cartridge and guiding it in its movement of translation towards its seat for attachment and connection at the end of its travel, and for keeping it connected.
Process for supplying gas to crop plants, which comprises exposing the crop plants to a gas atmosphere which includes carbon dioxide in a volume fraction of 300 to 5000 ppmv and ethene in a volume fraction of more than 5 ppmv and less than 50 ppmv.
A method performed by a network node for sending a configuration message to a user equipment, the network node and the user equipment operating in a Long-Term Evolution, LTE or a 5G communications network, the method comprising: sending the configuration message to the user equipment, the configuration message being for configuring the user equipment to report channel information about one carrier to the network node, the configuration message being for configuring the user equipment to report the channel information on a primary carrier and on one or more secondary carriers, characterized in that the configuration message is for further configuring the user equipment to report the channel information on the primary carrier in a first time period (Tpl) and on the one or more secondary carriers in a second time period, wherein the one carrier is a downlink only, non-standalone carrier.
An apparatus for securing a flexible pipe to a further flexible pipe in an end-to-end configuration, comprising: an elongate tubular element comprising a first and second end and an outer surface comprising a raised central region (35, 36); a ring member 38 located over a portion of the raised central region of the tubular element; characterized by a slot (55, 70) formed in an outer surface of the raised central region, or formed in an inner surface of the ring member and extending at least partially over the raised central region, the slot serving as a vent passage. an elongate tubular element comprising a first and second end and an outer surface comprising a raised central region (35, 36); a ring member 38 located over a portion of the raised central region of the tubular element; characterized by a slot (55, 70) formed in an outer surface of the raised central region, or formed in an inner surface of the ring member and extending at least partially over the raised central region, the slot serving as a vent passage.
A fuel tank comprising: an upper panel and a lower panel made of iron; at least one support column that is provided in an interior space formed by causing the upper panel and the lower panel to face each other and that is made of a thermoplastic resin, and a first base made of iron that is provided on an inner surface of the upper panel so as to correspond to the support column and connects the upper panel and one end of the support column together, and a second base made of iron that is provided on an inner surface of the lower panel and connects another end of the support column of the lower panel, wherein the support column is extended in a direction in which the upper panel and the lower panel face each other, and is formed by linking together a first member fixed to the inner surface of the upper panel via the first base and a second member fixed to the inner surface of the lower panel via the second base, by means of a snap-fit mechanism, and wherein the first member and the first base, and the second member and the second base are each connected together by screw connection. an upper panel and a lower panel made of iron; at least one support column that is provided in an interior space formed by causing the upper panel and the lower panel to face each other and that is made of a thermoplastic resin, and a first base made of iron that is provided on an inner surface of the upper panel so as to correspond to the support column and connects the upper panel and one end of the support column together, and a second base made of iron that is provided on an inner surface of the lower panel and connects another end of the support column of the lower panel, wherein the support column is extended in a direction in which the upper panel and the lower panel face each other, and is formed by linking together a first member fixed to the inner surface of the upper panel via the first base and a second member fixed to the inner surface of the lower panel via the second base, by means of a snap-fit mechanism, and wherein the first member and the first base, and the second member and the second base are each connected together by screw connection.
A method, implemented in a computer having virtualization logic for supporting a virtual machine, for managing latency introduced by virtualization, the method comprising: determining, by the virtualization logic, that a currently scheduled guest process has executed functionality responsive to which the virtualization logic is to execute a virtualization based operation, the virtualization based operation not being visible to a guest operating system; injecting code, by the virtualization logic, into the currently scheduled guest process, such that when the injected code is executed the guest operating system is caused to de-schedule the currently scheduled guest process and schedule at least one separate guest process; executing, by the virtualization logic, the virtualization based operation concurrently with the execution of the at least one separate guest process; and responsive to completing the execution of the virtualization based operation, causing, by the virtualization logic, the guest operating system to re-schedule the de-scheduled guest process. determining, by the virtualization logic, that a currently scheduled guest process has executed functionality responsive to which the virtualization logic is to execute a virtualization based operation, the virtualization based operation not being visible to a guest operating system; injecting code, by the virtualization logic, into the currently scheduled guest process, such that when the injected code is executed the guest operating system is caused to de-schedule the currently scheduled guest process and schedule at least one separate guest process; executing, by the virtualization logic, the virtualization based operation concurrently with the execution of the at least one separate guest process; and responsive to completing the execution of the virtualization based operation, causing, by the virtualization logic, the guest operating system to re-schedule the de-scheduled guest process.
An implantable deep brain stimulation system which is adapted for compatibility with an MRI machine, to prevent an interference with the picture making process of the MRI machine, wherein the MRI machine is configured to operate in a magnetic resonance imaging scanning mode with a radio frequency, RF, cycle time T, wherein radio frequency bursts are emitted for a first portion of cycle time T, and wherein, after the first portion, the MRI machine is in a listening mode, wherein the deep brain stimulation system comprises an electronic system (10, 1010, 2010, 3010, 4010, 5010), wherein the electronic system comprises a controller configured to switch the electronic system (10, 1010, 2010, 3010, 4010, 5010) from operation in a normal operating mode to operation in a magnetic resonance imaging mode; whereby the electronic system (10, 1010, 2010, 3010, 4010, 5010) further comprises a first circuit for performing functions of the deep brain stimulation system, and a second circuit configured such that this second circuit is switched off in the magnetic resonance imaging scanning mode; the electronic system (10, 1010, 2010, 3010, 4010, 5010) further comprising: an RF burst detector configured to detect, in use, radio frequency bursts emitted by the MRI machine and to provide a synchronization signal; and wherein in the magnetic resonance imaging scanning mode, in response to the synchronization signal,the first circuit is active only during the RF bursts of the MRI machine detected by the RF burst detector, and not during the listening mode portion of the cycle time T. wherein the deep brain stimulation system comprises an electronic system (10, 1010, 2010, 3010, 4010, 5010), wherein the electronic system comprises a controller configured to switch the electronic system (10, 1010, 2010, 3010, 4010, 5010) from operation in a normal operating mode to operation in a magnetic resonance imaging mode; whereby the electronic system (10, 1010, 2010, 3010, 4010, 5010) further comprises a first circuit for performing functions of the deep brain stimulation system, and a second circuit configured such that this second circuit is switched off in the magnetic resonance imaging scanning mode; the electronic system (10, 1010, 2010, 3010, 4010, 5010) further comprising: an RF burst detector configured to detect, in use, radio frequency bursts emitted by the MRI machine and to provide a synchronization signal; and wherein in the magnetic resonance imaging scanning mode, in response to the synchronization signal,the first circuit is active only during the RF bursts of the MRI machine detected by the RF burst detector, and not during the listening mode portion of the cycle time T. an RF burst detector configured to detect, in use, radio frequency bursts emitted by the MRI machine and to provide a synchronization signal; and wherein in the magnetic resonance imaging scanning mode, in response to the synchronization signal,the first circuit is active only during the RF bursts of the MRI machine detected by the RF burst detector, and not during the listening mode portion of the cycle time T.
Flow rate regulator having a disc-like, deformable regulating body which is arranged on the inflow side with respect to a main body such that a control gap is formed between the regulating body and the main body, wherein at least one drain opening, arranged downstream of the control gap, is formed in the main body, wherein a clear width of the control gap is defined, at least during operation, by at least one support element, wherein the regulating body is fastened to a carrier element, characterized in that the at least one support element is arranged in a movable manner relative to the main body.