mhurhangee/ep-ind-claims huggingface dataset:
A vehicle driving device, comprising: an internal combustion engine generating an output power by combustion of fuel supplied in response to a depression of an accelerator pedal of a vehicle while performing a fuel cut during a coast running of the vehicle in which the accelerator pedal is not depressed; a torque converter that transmits the output power of the internal combustion engine to a drive wheel of the vehicle via a pump impeller and a turbine runner; a lockup clutch that is engaged, when the vehicle performs the coast running, to directly connects the pump impeller with the turbine runner; an accelerator pedal depression sensor that detects a depression of the accelerator pedal during the coast running; and a programmable controller characterized in that the programmable controller is programmed to: operate the lockup clutch to disengage in response to the depression of the accelerator pedal during the coast running of the vehicle; and suppress a fuel recovery of the internal combustion engine in response to the depression of the accelerator pedal during the coast running of the vehicle until an engaging pressure of the lockup clutch decreases to a predetermined pressure. an internal combustion engine generating an output power by combustion of fuel supplied in response to a depression of an accelerator pedal of a vehicle while performing a fuel cut during a coast running of the vehicle in which the accelerator pedal is not depressed; a torque converter that transmits the output power of the internal combustion engine to a drive wheel of the vehicle via a pump impeller and a turbine runner; a lockup clutch that is engaged, when the vehicle performs the coast running, to directly connects the pump impeller with the turbine runner; an accelerator pedal depression sensor that detects a depression of the accelerator pedal during the coast running; and a programmable controller characterized in that the programmable controller is programmed to: operate the lockup clutch to disengage in response to the depression of the accelerator pedal during the coast running of the vehicle; and suppress a fuel recovery of the internal combustion engine in response to the depression of the accelerator pedal during the coast running of the vehicle until an engaging pressure of the lockup clutch decreases to a predetermined pressure. operate the lockup clutch to disengage in response to the depression of the accelerator pedal during the coast running of the vehicle; and suppress a fuel recovery of the internal combustion engine in response to the depression of the accelerator pedal during the coast running of the vehicle until an engaging pressure of the lockup clutch decreases to a predetermined pressure.
A method for controlling an electric drive of an electrically driven compressed-air compressor of a motor vehicle, wherein the compressed-air compressor is preferably provided for providing a supply to a pneumatic compressed-air brake system, wherein an instantaneous load torque of the compressed-air compressor that is applied at a drive shaft of the compressed-air compressor is estimated as a function of at least one operating parameter and is applied as a disturbance-variable estimate to the control loop of the electric drive in order to reduce a control error generated by the applied load torque, characterized in that the instantaneous load torque of the compressed-air compressor that is applied at the drive shaft of the compressed-air compressor is estimated as a function of at least the following variable: an instantaneous value of a pressure parameter (p) from which a present value of an air pressure prevailing at the outlet connector of the compressed-air compressor can be deduced or estimated and/or which provides a measure for a counter-pressure generated by a compressed-air system coupled to the compressed-air compressor.
A print head, comprising: a standardized computer interface to allow the print head to connect directly to a standard computer; an array of jets to deposit ink on a substrate in accordance with image data from the standard computer; a processing element to receive image data through the standardized computer interface; a buffer to store the image data received through the standardized computer interface and to transmit the image data to the array of jets when triggered by a dot clock, the buffer under control of the processing element and having a flexible depth of storage; and a driver to trigger individual ones of the array of jets in accordance with the image data. a standardized computer interface to allow the print head to connect directly to a standard computer; an array of jets to deposit ink on a substrate in accordance with image data from the standard computer; a processing element to receive image data through the standardized computer interface; a buffer to store the image data received through the standardized computer interface and to transmit the image data to the array of jets when triggered by a dot clock, the buffer under control of the processing element and having a flexible depth of storage; and a driver to trigger individual ones of the array of jets in accordance with the image data.
Method for controlling a rotary electric machine, in particular an alternator or a starter alternator for a motor vehicle, the electric machine being capable of delivering an electric current, the intensity of which varies according to excitation signals, a duty cycle being associated with each excitation signal, the method including the following steps: - comparing the difference between the duty-cycle values (DC1; DC2) of two consecutive excitation signals with a predetermined threshold; - if said difference is greater than the predetermined threshold (LD_TH), triggering a gradual response phase during which the duty cycle of the excitation signals is gradually increased, in particular substantially linearly; - at the start of this gradual response phase, increasing the duty cycle of consecutive excitation signals by a predetermined jump (D_B), then increasing the duty cycle gradually, the duty-cycle jump (D_B) at the start of the gradual response phase being smaller than or equal to the threshold (LD_TH) for triggering the gradual response phase, said method being characterized in that it includes the following additional steps: - detecting a positive difference between the duty-cycle values of two consecutive excitation signals, this difference being smaller than the threshold (LD_TH) for triggering the gradual response phase; - increasing the duty cycle by a jump corresponding to the positive difference without triggering the gradual response phase. - comparing the difference between the duty-cycle values (DC1; DC2) of two consecutive excitation signals with a predetermined threshold; - if said difference is greater than the predetermined threshold (LD_TH), triggering a gradual response phase during which the duty cycle of the excitation signals is gradually increased, in particular substantially linearly; - at the start of this gradual response phase, increasing the duty cycle of consecutive excitation signals by a predetermined jump (D_B), then increasing the duty cycle gradually, the duty-cycle jump (D_B) at the start of the gradual response phase being smaller than or equal to the threshold (LD_TH) for triggering the gradual response phase, said method being characterized in that it includes the following additional steps: - detecting a positive difference between the duty-cycle values of two consecutive excitation signals, this difference being smaller than the threshold (LD_TH) for triggering the gradual response phase; - increasing the duty cycle by a jump corresponding to the positive difference without triggering the gradual response phase. - detecting a positive difference between the duty-cycle values of two consecutive excitation signals, this difference being smaller than the threshold (LD_TH) for triggering the gradual response phase; - increasing the duty cycle by a jump corresponding to the positive difference without triggering the gradual response phase.
A turbo compressor comprising: a lubricant spray nozzle which is disposed to penetrate a housing and sprays a lubricant toward a sliding site, such as a bearing, accommodated in the housing; a support member which is detachably mounted on the housing and supports the lubricant spray nozzle outside of the housing; characterized in that a cover member covers the sliding site in the interior of the housing and has a through-hole, wherein the lubricant spray nozzle is disposed to pass through the through-hole, and the lubricant spray nozzle has a nozzle portion having a jet orifice which is open toward the sliding site whereby the lubricant spray nozzle is installable by inserting the lubricant spray nozzle from the outside to the inside of the housing. a lubricant spray nozzle which is disposed to penetrate a housing and sprays a lubricant toward a sliding site, such as a bearing, accommodated in the housing; a support member which is detachably mounted on the housing and supports the lubricant spray nozzle outside of the housing; characterized in that a cover member covers the sliding site in the interior of the housing and has a through-hole, wherein the lubricant spray nozzle is disposed to pass through the through-hole, and the lubricant spray nozzle has a nozzle portion having a jet orifice which is open toward the sliding site whereby the lubricant spray nozzle is installable by inserting the lubricant spray nozzle from the outside to the inside of the housing.
A dual-latching valve operable in a metastable state, comprising: a) first and second compressible tubes (305,306); b) first and second valve arms positioned adjacent to the first and second tubes (305,306), respectively, and thereby forming first and second valves; c) a valve mechanism operable to selectively open and close the first and second valves by selectively engaging with the first and second valve arms wherein only one of the first and second valves is open at a time; and d) an interference mechanism positioned to engage at least one of the first and second valve arms whereby the dual latching valve enters a metastable state allowing fluid flow simultaneously through the first and second valves; characterized in that the dual-latching valve is on a single flow path. a) first and second compressible tubes (305,306); b) first and second valve arms positioned adjacent to the first and second tubes (305,306), respectively, and thereby forming first and second valves; c) a valve mechanism operable to selectively open and close the first and second valves by selectively engaging with the first and second valve arms wherein only one of the first and second valves is open at a time; and d) an interference mechanism positioned to engage at least one of the first and second valve arms whereby the dual latching valve enters a metastable state allowing fluid flow simultaneously through the first and second valves;
A process for the production of a crude solder product and a copper product comprising the step of a) providing a black copper composition comprising at least 50%wt of copper together with at least 1.0%wt of tin and/or at least 1.0%wt of lead, the process further comprising the steps of (i) refining a first portion of the black copper composition obtained from step a) to obtain a refined copper product together with at least one copper refining slag (3, 6, 8), (ii) recovering a first crude solder metal composition (18, 26), as a first crude solder product, from the at least one copper refining slag (3, 6, 8), thereby forming a second solder refining slag (19, 27) in equilibrium with the first crude solder metal composition (18, 26), characterised in that the process further comprises the step of f) contacting a second portion of the black copper composition from step a), different from the first portion, with the second solder refining slag thereby forming a second spent slag and a second lead-tin based metal composition, followed by separating the second spent slag from the second lead-tin based metal composition. a) providing a black copper composition comprising at least 50%wt of copper together with at least 1.0%wt of tin and/or at least 1.0%wt of lead, (i) refining a first portion of the black copper composition obtained from step a) to obtain a refined copper product together with at least one copper refining slag (3, 6, 8), (ii) recovering a first crude solder metal composition (18, 26), as a first crude solder product, from the at least one copper refining slag (3, 6, 8), thereby forming a second solder refining slag (19, 27) in equilibrium with the first crude solder metal composition (18, 26),
A surgical training device comprising: at least one simulated tissue portion suspended from an upper surface of a base by a distance; a first set of mounting posts connected to the base and extending upwardly from the upper surface of the base; the surgical training device is characterized by: a second set of mounting posts connected to the base and extending upwardly from the upper surface of the base, the second set of mounting posts being shorter than the first set of mounting posts; wherein the first set and second set of mounting posts (34, 46) are configured to selectively locate and position the at least one simulated tissue portion such that the at least one simulated tissue portion is suspended by the first set and second set of mounting posts (34, 46), allowing for a greater range of angle variation and thereby tension adjustment of the at least one mounted simulated tissue portion. at least one simulated tissue portion suspended from an upper surface of a base by a distance; a first set of mounting posts connected to the base and extending upwardly from the upper surface of the base; the surgical training device is characterized by: a second set of mounting posts connected to the base and extending upwardly from the upper surface of the base, the second set of mounting posts being shorter than the first set of mounting posts; wherein the first set and second set of mounting posts (34, 46) are configured to selectively locate and position the at least one simulated tissue portion such that the at least one simulated tissue portion is suspended by the first set and second set of mounting posts (34, 46), allowing for a greater range of angle variation and thereby tension adjustment of the at least one mounted simulated tissue portion. a second set of mounting posts connected to the base and extending upwardly from the upper surface of the base, the second set of mounting posts being shorter than the first set of mounting posts; wherein the first set and second set of mounting posts (34, 46) are configured to selectively locate and position the at least one simulated tissue portion such that the at least one simulated tissue portion is suspended by the first set and second set of mounting posts (34, 46), allowing for a greater range of angle variation and thereby tension adjustment of the at least one mounted simulated tissue portion.
A garment care device (100, 300, 600, 700) comprising: - a sensor for generating an output signal characterizing a movement of said garment care device, wherein said sensor is an accelerometer, - a control unit coupled to said sensor, the control unit being adapted to: a) identify and compare characteristics of said output signal to characteristics of a predefined displacement pattern, wherein said predefined displacement pattern corresponds to the amount of a linear displacement along a given direction of the garment care device, b) adjust at least one operating parameter of the garment care device based on the result of the comparison between characteristics of said output signal and characteristics of said predefined displacement pattern, - and characterised in that the garment care device further comprises a steam generator (106, 606, 706), wherein said sensor is adapted to generate an acceleration signal varying along the time in a vertical direction, wherein said at least one operating parameter comprises a steam amount generated by said steam generator (106, 606, 706), such that: if the acceleration signal is above 1.05 g, or if the acceleration signal is above 1.05 g for a certain duration, the steam amount generated by said steam generator (106, 606, 706) is reduced or stopped. - a sensor for generating an output signal characterizing a movement of said garment care device, wherein said sensor is an accelerometer, - a control unit coupled to said sensor, the control unit being adapted to: a) identify and compare characteristics of said output signal to characteristics of a predefined displacement pattern, wherein said predefined displacement pattern corresponds to the amount of a linear displacement along a given direction of the garment care device, b) adjust at least one operating parameter of the garment care device based on the result of the comparison between characteristics of said output signal and characteristics of said predefined displacement pattern, a) identify and compare characteristics of said output signal to characteristics of a predefined displacement pattern, wherein said predefined displacement pattern corresponds to the amount of a linear displacement along a given direction of the garment care device, b) adjust at least one operating parameter of the garment care device based on the result of the comparison between characteristics of said output signal and characteristics of said predefined displacement pattern, - and characterised in that the garment care device further comprises a steam generator (106, 606, 706), wherein said sensor is adapted to generate an acceleration signal varying along the time in a vertical direction, wherein said at least one operating parameter comprises a steam amount generated by said steam generator (106, 606, 706), such that: if the acceleration signal is above 1.05 g, or if the acceleration signal is above 1.05 g for a certain duration, the steam amount generated by said steam generator (106, 606, 706) is reduced or stopped. if the acceleration signal is above 1.05 g, or if the acceleration signal is above 1.05 g for a certain duration,
A method for wireless communications performed by a user equipment, UE, comprising: receiving a first beamformed channel state information reference signal, CSI-RS, and a beacon reference signal; obtaining a configuration of the beacon reference signal, wherein the configuration comprises at least one of: antenna ports used for transmitting the beacon reference signal, a frequency used for transmitting the beacon reference signal, a time for transmitting the beacon reference signal, a period for transmitting the beacon reference signal, a subframe offset for transmitting the beacon reference signal, and a slot offset for transmitting the beacon reference signal; obtaining an indication of an association between the first beamformed CSI-RS and the beacon reference signal; determining, based on the first beamformed CSI-RS and the beacon reference signal, information regarding an adjustment, preferred by the UE, of a beamformer to be used for a forthcoming second beamformed CSI-RS; transmitting a beamformer adjustment indicator, BAI, periodically, semi-persistently, or aperiodically, that indicates the preferred adjustment; and reporting channel state information feedback, CSF, based on the first beamformed CSI-RS. receiving a first beamformed channel state information reference signal, CSI-RS, and a beacon reference signal; obtaining a configuration of the beacon reference signal, wherein the configuration comprises at least one of: antenna ports used for transmitting the beacon reference signal, a frequency used for transmitting the beacon reference signal, a time for transmitting the beacon reference signal, a period for transmitting the beacon reference signal, a subframe offset for transmitting the beacon reference signal, and a slot offset for transmitting the beacon reference signal; obtaining an indication of an association between the first beamformed CSI-RS and the beacon reference signal; determining, based on the first beamformed CSI-RS and the beacon reference signal, information regarding an adjustment, preferred by the UE, of a beamformer to be used for a forthcoming second beamformed CSI-RS; transmitting a beamformer adjustment indicator, BAI, periodically, semi-persistently, or aperiodically, that indicates the preferred adjustment; and reporting channel state information feedback, CSF, based on the first beamformed CSI-RS.
A formwork system of concrete slabs comprising at least a first and a second horizontal support base (1, 2) profiled and arranged with a plurality of projecting shapes (1a, 2a) and cutouts (1b, 2b) capable of entangling by embedding, rods received on the horizontal support bases which constitute setting concrete means, an expansion joint, a vertical partition element of the expansion joint, first pairs of brackets (4a, 4b) secured to the first support base and having a vertical leg which allows the height adjustable fastening of the vertical partition element of a vertical counterplate in a fixed position, second pairs of brackets (8a, 8b) secured to the second support base, placed in contraposition of said first pairs of brackets (4a, 4b) and allowing the fastening of the vertical counterplate, and a bolting, the vertical partition element of the expansion joint having oblong vertical lumens extending over a part of its height, and the counterplate and the first and second pairs of brackets (4a, 4b) (8a, 8b) having holes allowing the bolding to be integrated for the setting and the securing of the vertical partition element relative to the counterplate, characterized in that the expansion joint is in the form of a first longitudinal element and a second longitudinal element having identical sinusoidal profiles, contiguous to each other so as to engage the ridges of the first element with the grooves of the second element, each longitudinal element (10a, 10b) being designed to form an integral part with an upper and horizontal edge of a concrete slab, the longitudinal elements (10a, 10b) comprising specified widths so as to define external sinusoidal profiles to be each in contact with the concrete slab, and internal sinusoidal profiles in contact with each other, the longitudinal elements (10a, 10b) comprising rods projecting from a lower face and oriented in an opposite direction toward the exterior to form setting concrete means, the lower face of the first longitudinal element being welded to the partition element along its length extending orthogonally to said lower face, and intended to separate vertically two adjacent concrete slabs, the second longitudinal element being connected to the partition element or the first longitudinal element through fastening means capable of breaking themselves under a horizontal retraction strain of at least one concrete slab, whereby the two longitudinal elements (10a, 10b) move away from one another while the first longitudinal element remains integral with the partition element, the amplitudes and widths of the longitudinal elements (10a, 10b) being such that the external sinusoidal profiles of the longitudinal elements (10a, 10b)) do not pass through a longitudinal plane defined by the partition element.