mhurhangee/ep-ind-claims huggingface dataset:
A method for regulating the regeneration temperature of a particulate filter for a vehicle engine, said engine being equipped with an exhaust line comprising successively in the direction of flow of the gases: - an oxidation catalyst provided with a sensor that measures the temperature downstream of the catalyst in the direction of flow of the gases, - a particulate filter, - acquiring information relating to the running profile of the vehicle, - determining a target temperature (T target) for the temperature downstream of the catalyst as a function of the information acquired, - regenerating the particulate filter, and, during the regeneration, characterized in that the method includes the step of adapting the target temperature (T target) as a function of the development of a temperature upstream of the particulate filter, which is estimated from the temperature measured by the sensor. - an oxidation catalyst provided with a sensor that measures the temperature downstream of the catalyst in the direction of flow of the gases, - a particulate filter, - acquiring information relating to the running profile of the vehicle, - determining a target temperature (T target) for the temperature downstream of the catalyst as a function of the information acquired, - regenerating the particulate filter, and, during the regeneration,
A timing device that audibly provides an indication of elapsing time, the device comprising; a container having walls defining first and second compartments connected by a passage; particulates contained in the container; wherein, with the device positioned to have the compartment containing the particulates uppermost, particulates fall into the lowermost compartment through the passage which regulates their rate of fall such that the particulates accumulate in a base of the lowermost compartment in a set time, wherein a portion of the wall defining at least one compartment is recessed and has a sounding surface positioned under the passage that is arranged to produce sound when its internal surface is struck by falling particulate providing an externally audible indication of elapsing time, wherein the recessed portion of wall positions the sounding surface higher than the base of the compartment forming a well in which falling particulate accumulates after striking and rebounding from the sounding surface. a container having walls defining first and second compartments connected by a passage; particulates contained in the container; wherein, with the device positioned to have the compartment containing the particulates uppermost, particulates fall into the lowermost compartment through the passage which regulates their rate of fall such that the particulates accumulate in a base of the lowermost compartment in a set time, wherein a portion of the wall defining at least one compartment is recessed and has a sounding surface positioned under the passage that is arranged to produce sound when its internal surface is struck by falling particulate providing an externally audible indication of elapsing time, wherein the recessed portion of wall positions the sounding surface higher than the base of the compartment forming a well in which falling particulate accumulates after striking and rebounding from the sounding surface.
A method of communication for an apparatus, comprising: obtaining first power control information for a first wireless communication link, wherein the first wireless communication link is a first beamformed link; obtaining second power control information for a second wireless communication link, wherein the second wireless communication link is a second beamformed link; characterized in that generating a power control signal for the first wireless communication link and the second wireless communication link based on the first power control information and the second power control information, wherein, the first and second wireless communication links are independent communication links. obtaining first power control information for a first wireless communication link, wherein the first wireless communication link is a first beamformed link; obtaining second power control information for a second wireless communication link, wherein the second wireless communication link is a second beamformed link; characterized in that generating a power control signal for the first wireless communication link and the second wireless communication link based on the first power control information and the second power control information, wherein, the first and second wireless communication links are independent communication links.
A surface compactor machine, comprising: a cylindrical drum (12a, 12b) comprising a cylindrical drum shell (14a, 14b) and a cylindrical spool (16a, 16b) disposed within the cylindrical drum shell and supporting the cylindrical drum shell, the cylindrical drum shell and the cylindrical spool having an axis of rotation; an eccentric assembly mechanically coupled to the cylindrical drum and arranged to impart vibration to the cylindrical drum when the eccentric assembly is rotated, wherein the cylindrical drum and the eccentric assembly form part of an unsprung mass having a combined first center of gravity; a head plate (24a, 24b) affixed to the cylindrical spool through a shock isolator (26a, 26b); and wherein the surface compactor machine further comprises: a sprung mass comprising a plurality of components having a combined second center of gravity that is lower than the first center of gravity when the surface compactor machine is in a stationary position; wherein the sprung mass comprises a traction system (34a, 34b) including a traction motor (36a, 36b) and a slewing gear (38a, 38b) coupled to the traction motor, wherein the traction system is configured to rotate the sprung mass relative to the unsprung mass about the axis of rotation, characterized in that the sprung mass is rotationally coupled to the head plate (24a, 24b) along the axis of rotation. a cylindrical drum (12a, 12b) comprising a cylindrical drum shell (14a, 14b) and a cylindrical spool (16a, 16b) disposed within the cylindrical drum shell and supporting the cylindrical drum shell, the cylindrical drum shell and the cylindrical spool having an axis of rotation; an eccentric assembly mechanically coupled to the cylindrical drum and arranged to impart vibration to the cylindrical drum when the eccentric assembly is rotated, wherein the cylindrical drum and the eccentric assembly form part of an unsprung mass having a combined first center of gravity; a head plate (24a, 24b) affixed to the cylindrical spool through a shock isolator (26a, 26b); and wherein the surface compactor machine further comprises: a sprung mass comprising a plurality of components having a combined second center of gravity that is lower than the first center of gravity when the surface compactor machine is in a stationary position; wherein the sprung mass comprises a traction system (34a, 34b) including a traction motor (36a, 36b) and a slewing gear (38a, 38b) coupled to the traction motor, wherein the traction system is configured to rotate the sprung mass relative to the unsprung mass about the axis of rotation, characterized in that the sprung mass is rotationally coupled to the head plate (24a, 24b) along the axis of rotation.
A droplet discharging device, comprising: a discharging head configured to discharge a droplet toward a medium; a head driving circuit configured to drive the discharging head; a heat dissipation unit configured to dissipate heat generated in the head driving circuit; a carriage configured to move in a state of supporting the discharging head, the head driving circuit, and the heat dissipation unit; and a plurality of airflow generating units disposed vertically above a movement region of the carriage and capable of generating an airflow toward the heat dissipation unit supported by the carriage, wherein the movement region includes a droplet discharging region in which a droplet is discharged onto the medium, and a maintenance region for performing maintenance of the discharging head, and among the plurality of the airflow generating units, when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the droplet discharging region is a first airflow generating unit, and when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the maintenance region is a second airflow generating unit, in a case where the carriage is positioned in the maintenance region, while airflow generation from the first airflow generating unit is limited, airflow generation from the second airflow generating unit is allowed. a discharging head configured to discharge a droplet toward a medium; a head driving circuit configured to drive the discharging head; a heat dissipation unit configured to dissipate heat generated in the head driving circuit; a carriage configured to move in a state of supporting the discharging head, the head driving circuit, and the heat dissipation unit; and a plurality of airflow generating units disposed vertically above a movement region of the carriage and capable of generating an airflow toward the heat dissipation unit supported by the carriage, wherein the movement region includes a droplet discharging region in which a droplet is discharged onto the medium, and a maintenance region for performing maintenance of the discharging head, and among the plurality of the airflow generating units, when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the droplet discharging region is a first airflow generating unit, and when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the maintenance region is a second airflow generating unit, in a case where the carriage is positioned in the maintenance region, while airflow generation from the first airflow generating unit is limited, airflow generation from the second airflow generating unit is allowed.
A method for controlling water production in a wellbore, comprising: directing flow of a production fluid into a production conduit via a fluid flow path; using a sensor arrangement to perform a quantitative measurement of water content within the production fluid at a sampling rate, wherein the sampling rate increases upon detection of water in the production fluid, the sampling rate then reducing when a steady state of water content within the production fluid is observed; and configuring the flow path between a fully open configuration, a fully closed configuration and at least one intermediate configuration to vary the fluid flow in the fluid flow path based on the quantitative measurement of water content within the production fluid to maintain water production at or below a predetermined threshold (WC-, WC+). directing flow of a production fluid into a production conduit via a fluid flow path; using a sensor arrangement to perform a quantitative measurement of water content within the production fluid at a sampling rate, wherein the sampling rate increases upon detection of water in the production fluid, the sampling rate then reducing when a steady state of water content within the production fluid is observed; and configuring the flow path between a fully open configuration, a fully closed configuration and at least one intermediate configuration to vary the fluid flow in the fluid flow path based on the quantitative measurement of water content within the production fluid to maintain water production at or below a predetermined threshold (WC-, WC+).
Wet-rotor motor pump with a split tube that separates the motor stator from the rotor mounted in the split tube on a motor shaft, in which the split tube on the end facing the impeller forms a split tube flange that, as a separating wall, separates the pump chamber from the motor stator, in which the motor shaft projects into the pump chamber where it carries the pump impeller, the rear of the impeller has a coaxial annular space that is open to the pump chamber from which the pumped liquid flows into the rotor chamber through at least one flow passage in the separating wall and, after flowing through the rotor chamber, flows back into the pump chamber, the back wall of the impeller in the area of the annular space has a throttled outlet that connects the annular space to the inside of the impeller, notably the pump intake side, and a coaxial annular element projects on the rear of the impeller, surrounding the motor shaft and delimiting the annular space toward the motor shaft so that an inner annular space is formed around the motor shaft, characterised by the motor shaft being a hollow shaft through which the liquid in the rotor chamber flows into the pump chamber and the hollow motor shaft in the height of the annular elements having at least one radial opening, bore or groove through which the liquid flows from the inner annular space surrounded by the annular element into the shaft cavity.
A method of performing an operation in a wellbore comprising: introducing a tool into the wellbore, wherein the tool comprises: a mandrel comprising a port; and a plug, wherein the plug is located within the port, and wherein the plug comprises a first material, wherein the first material partially or wholly dissolves via galvanic corrosion within the wellbore; wherein the plug further comprises a second material, wherein the first material and the second material are metals or metal alloys and form a galvanic couple, wherein the first material is the anode and the second material is the cathode of the galvanic couple, and wherein the first material dissolves via galvanic corrosion when both the first and second materials are in contact with an electrolyte; introducing a cement composition into an annulus located between the outside of the tool at least at the location of the port and the inside of the wellbore; and causing or allowing at least a portion of the first material to dissolve, wherein the step of causing or allowing is performed after the step of introducing the cement composition, wherein the cement composition is the electrolyte. introducing a tool into the wellbore, wherein the tool comprises: a mandrel comprising a port; and a plug, wherein the plug is located within the port, and wherein the plug comprises a first material, wherein the first material partially or wholly dissolves via galvanic corrosion within the wellbore; wherein the plug further comprises a second material, wherein the first material and the second material are metals or metal alloys and form a galvanic couple, wherein the first material is the anode and the second material is the cathode of the galvanic couple, and wherein the first material dissolves via galvanic corrosion when both the first and second materials are in contact with an electrolyte; a mandrel comprising a port; and a plug, wherein the plug is located within the port, and wherein the plug comprises a first material, wherein the first material partially or wholly dissolves via galvanic corrosion within the wellbore; introducing a cement composition into an annulus located between the outside of the tool at least at the location of the port and the inside of the wellbore; and causing or allowing at least a portion of the first material to dissolve, wherein the step of causing or allowing is performed after the step of introducing the cement composition, wherein the cement composition is the electrolyte.
A holder for affixing a blank comprising - a joining surface for joining the holder to the blank; - a securing shaft connected to the joining surface, the securing shaft having at least one securing surface (26, 28; 13) for securing to a housing; - wherein the securing shaft, in cross-sectional view, comprises an essentially polygonal shape with at least two lateral surfaces (18, 20, 22, 24), wherein at least two of the lateral surfaces are arranged adjacent to each other and extend at right angles to each other; - wherein the securing surface, in cross-sectional view, extends substantially perpendicular to a radius of the securing shaft extending essentially through the center of the securing surface and comprises a width that is less than the width of a lateral surface (18; 20; 22; 24), and - wherein the at least one securing surface (26, 28; 13) comprises a first securing surface, characterized in that the at least one securing surface (26, 28; 13) comprises a second securing surface, wherein the first securing surface and the second securing surface each comprising a bevel. - a joining surface for joining the holder to the blank; - a securing shaft connected to the joining surface, the securing shaft having at least one securing surface (26, 28; 13) for securing to a housing; - wherein the securing shaft, in cross-sectional view, comprises an essentially polygonal shape with at least two lateral surfaces (18, 20, 22, 24), wherein at least two of the lateral surfaces are arranged adjacent to each other and extend at right angles to each other; - wherein the securing surface, in cross-sectional view, extends substantially perpendicular to a radius of the securing shaft extending essentially through the center of the securing surface and comprises a width that is less than the width of a lateral surface (18; 20; 22; 24), and - wherein the at least one securing surface (26, 28; 13) comprises a first securing surface, characterized in that the at least one securing surface (26, 28; 13) comprises a second securing surface, wherein the first securing surface and the second securing surface each comprising a bevel.
Attachment lamp for outside lighting, comprising a lamp base for fixing to a lamppost, a hollow transparent shield to be arranged on the lamp base, an electric lamp arrangement arranged in the shield and a lamp canopy, the shield supporting the lamp canopy, characterized in that the lamp arrangement is arranged on the lamp canopy, so that the lamp arrangement is supported by the shield.
A method of wireless communication, comprising: identifying, by a device, a potential time for early beam switching within a transmission interval of a first symbol, wherein the first symbol is an orthogonal frequency division multiplexing, OFDM, symbol and early beam switching comprises initiating beam switching before the end of the full payload portion of the first symbol; determining, by the device, whether to switch a transmit, Tx, beam early based on if the first symbol is a low priority symbol and a second symbol is a high priority symbol, the second symbol following the potential time for the early beam switching; determining a switching configuration and a switching time based on the potential time for the early beam switching; and initiating switching, by the device, before the end of the full payload portion of the first symbol, the Tx beam early using the switching configuration and the switching time in response to determining to switch the Tx beam early. identifying, by a device, a potential time for early beam switching within a transmission interval of a first symbol, wherein the first symbol is an orthogonal frequency division multiplexing, OFDM, symbol and early beam switching comprises initiating beam switching before the end of the full payload portion of the first symbol; determining, by the device, whether to switch a transmit, Tx, beam early based on if the first symbol is a low priority symbol and a second symbol is a high priority symbol, the second symbol following the potential time for the early beam switching; determining a switching configuration and a switching time based on the potential time for the early beam switching; and initiating switching, by the device, before the end of the full payload portion of the first symbol, the Tx beam early using the switching configuration and the switching time in response to determining to switch the Tx beam early.
Beverage preparation machine, comprising a tank, a feed pump, a heat exchanger, and provided with an infusion unit (1; 5) comprising an infusion chamber (101, 201; 105, 205), equipped with means for feeding the infusion liquid (251; 255) and dispensing means for the prepared drink (121; 125), formed by two complementary portions and suitable, once coupled, for receiving a prepackaged charge of edible material, in which the two portions of said infusion chamber are provided with movement relative to each other, and the movement is suitably guided, and means for coupling between the two portions are provided, releasable; said two portions of said infusion chamber are one movable (201; 205) and one fixed (101; 105), being said movable portion (201; 205) equipped with actuation means comprising a hydraulic jack (501; 505) mechanically coupled to said movable portion (201; 205), and inserted in the circuit for feeding pressurized water to the infusion chamber, and releasable locking means being provided (481, 431, 491, 471; 435, 605, 625) of the coupling between said two portions of the infusion chamber, in which said jack (501; 505) is inserted in the pressurized water supply circuit downstream of the pump, upstream of the heat exchanger and in series with it, characterized in that the said jack (501; 505) is able to act as a distribution valve for the pressurized liquid fed by the pump, being provided with a duct (531; 515) which opens radially from the cylinder (501; 505) of said jack, and communicates with the heat exchanger of the machine.
A method for wireless communication at a user equipment, the method comprising: receiving at least one medium access control - control element, MAC-CE, comprising pathloss reference signal information; identifying a plurality of component carriers, wherein the identifying the plurality of component carriers comprises: receiving a plurality of lists of component carriers; and selecting one list of the plurality of lists of component carriers that includes a first component carrier identified by the MAC-CE; applying the pathloss reference signal information to the plurality of component carriers; and transmitting uplink information via the plurality of component carriers according to the applying the pathloss reference signal information to the plurality of component carriers. receiving at least one medium access control - control element, MAC-CE, comprising pathloss reference signal information; identifying a plurality of component carriers, wherein the identifying the plurality of component carriers comprises: receiving a plurality of lists of component carriers; and selecting one list of the plurality of lists of component carriers that includes a first component carrier identified by the MAC-CE; receiving a plurality of lists of component carriers; and selecting one list of the plurality of lists of component carriers that includes a first component carrier identified by the MAC-CE; applying the pathloss reference signal information to the plurality of component carriers; and transmitting uplink information via the plurality of component carriers according to the applying the pathloss reference signal information to the plurality of component carriers.