mhurhangee/patent-ind-claim-en huggingface dataset:
A regeneration control device for an exhaust purification device in an engine with a turbosupercharger having the exhaust purification device equipped with a filter that traps particulate matters in exhaust air, the regeneration control device for the exhaust purification device comprising: a regeneration controller that executes regeneration control in which particulate matters trapped by the filter are removed by combustion; and a post-injection controller that during the regeneration control, executes control in which a time period of a post-injection of fuel executed subsequently to a main injection of fuel is advanced such that a supercharging pressure of the turbosupercharger becomes higher than a supercharging pressure during steady operation, characterized by a supercharging pressure detector (SW3) that detects a supercharging pressure of intake air of the engine; and an excessive temperature rise determinator that determines possibility or impossibility of an excessive temperature rise of the filter in the regeneration control, wherein the post-injection controller advances the time period of the post-injection such that a supercharging pressure detected by the supercharging pressure detector becomes a target supercharging pressure set in advance only when determination is made by the excessive temperature rise determinator that the filter has a possibility of having an excessive temperature rise. a regeneration controller that executes regeneration control in which particulate matters trapped by the filter are removed by combustion; and a post-injection controller that during the regeneration control, executes control in which a time period of a post-injection of fuel executed subsequently to a main injection of fuel is advanced such that a supercharging pressure of the turbosupercharger becomes higher than a supercharging pressure during steady operation, characterized by a supercharging pressure detector (SW3) that detects a supercharging pressure of intake air of the engine; and an excessive temperature rise determinator that determines possibility or impossibility of an excessive temperature rise of the filter in the regeneration control, wherein the post-injection controller advances the time period of the post-injection such that a supercharging pressure detected by the supercharging pressure detector becomes a target supercharging pressure set in advance only when determination is made by the excessive temperature rise determinator that the filter has a possibility of having an excessive temperature rise.
A method for treating a filter for filtering particulate matter from exhaust gas, the method comprising the steps of: a) containing a dry powder in a reservoir; b) locating a filter in a filter holder, the filter comprising a porous substrate having an inlet face and an outlet face, the inlet face and the outlet face being separated by a porous structure; c) establishing a primary gas flow through the porous structure of the filter by applying a pressure reduction to the outlet face of the filter; d) transferring the dry powder from the reservoir to a spray device located upstream of the inlet face of the filter; e) spraying the dry powder, using the spray device, towards the inlet face of the filter such that the dry powder is entrained in the primary gas flow and passes through the inlet face of the filter to contact the porous structure; and f) monitoring a back pressure of the filter during at least step e) and stopping the spraying of the dry powder towards the inlet face of the filter when: p BP ≥ p target − p offset where, p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure. a) containing a dry powder in a reservoir; b) locating a filter in a filter holder, the filter comprising a porous substrate having an inlet face and an outlet face, the inlet face and the outlet face being separated by a porous structure; c) establishing a primary gas flow through the porous structure of the filter by applying a pressure reduction to the outlet face of the filter; d) transferring the dry powder from the reservoir to a spray device located upstream of the inlet face of the filter; e) spraying the dry powder, using the spray device, towards the inlet face of the filter such that the dry powder is entrained in the primary gas flow and passes through the inlet face of the filter to contact the porous structure; and f) monitoring a back pressure of the filter during at least step e) and stopping the spraying of the dry powder towards the inlet face of the filter when: p BP ≥ p target − p offset where, p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure. p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure.
A method of continuously feeding a mammalian cell culture that does not employ feedback control, comprising: (a) providing a vessel comprising a mammalian cell culture comprising mammalian cells and media; (b) determining preferred values for the consumption rate (K 1 ) of a nutrient, growth rate (K 21 ) and growth rate (K 22 ) of the cell culture; (c) providing an apparatus adapted to impart a continuous feed stream to the cell culture, wherein the apparatus comprises a controller module adapted to continuously feed the culture at a flow rate F, wherein F is defined as K 1 exp(K 21 t 2 + K 22 t); t is the duration of time from the time the feed stream is added to the bioreactor to the time when the feed stream is stopped; and K 1 , K 21 and K 22 are the values determined in (b); and (d) activating the controller module to initiate continuous feeding of the cell culture. (a) providing a vessel comprising a mammalian cell culture comprising mammalian cells and media; (b) determining preferred values for the consumption rate (K 1 ) of a nutrient, growth rate (K 21 ) and growth rate (K 22 ) of the cell culture; (c) providing an apparatus adapted to impart a continuous feed stream to the cell culture, wherein the apparatus comprises a controller module adapted to continuously feed the culture at a flow rate F, wherein F is defined as K 1 exp(K 21 t 2 + K 22 t); t is the duration of time from the time the feed stream is added to the bioreactor to the time when the feed stream is stopped; and K 1 , K 21 and K 22 are the values determined in (b); and F is defined as K 1 exp(K 21 t 2 + K 22 t); t is the duration of time from the time the feed stream is added to the bioreactor to the time when the feed stream is stopped; and K 1 , K 21 and K 22 are the values determined in (b); and (d) activating the controller module to initiate continuous feeding of the cell culture.
An elevator car defining an interior space for accommodating passengers and/or cargo, the elevator car comprising: a working platform moveable between a stowed position, above the interior space , and an operational position, suspended within the interior space ; a hoisting device , located at the working platform ; a tension member connected to the hoisting device and connected to the working platform such that a suspending portion of the tension member suspends the working platform , wherein the hoisting device is configured, when actuated, to alter the length of the suspending portion , so as to hoist the working platform between the stowed position and the operational position; characterized in that the hoisting device is attached to an underside of the working platform. a working platform moveable between a stowed position, above the interior space , and an operational position, suspended within the interior space ; a hoisting device , located at the working platform ; a tension member connected to the hoisting device and connected to the working platform such that a suspending portion of the tension member suspends the working platform , wherein the hoisting device is configured, when actuated, to alter the length of the suspending portion , so as to hoist the working platform between the stowed position and the operational position; characterized in that the hoisting device is attached to an underside of the working platform.
A cassette module embodied for a differential flowmeter, wherein the cassette module forms a first and a second channel, which conducts fluid during operation of the differential flowmeter, characterized in that the cassette module is embodied in such a way that a geometric deformation of the channels due to a temperature difference between the channels is minimized or prevented in that at least two first channels and at least two second channels are provided, and in that the channels are arranged in such a way that mechanical stresses due to a temperature difference between the first and the second channels compensate one another.
A method for manufacturing a film-formed molded product which comprises a non-conductive first molded product and a metal coating film that covers the first molded product and has an electromagnetic wave transmission performance, comprising: a process (a) in which a first mold and a second mold are mold-clamped, a first material is injected into a first space between the first mold and the second mold , and thereby the first molded product comprising the first material is formed; a process (b) in which after the first mold and the second mold are mold-opened, the first molded product is moved with respect to the second mold between the first mold and the second mold ; and a process (c) in which after the process (b), the first mold and the second mold are mold-clamped, and the metal coating film is formed on the surface of the first molded product by a first film-forming part comprised in the second mold ; wherein the method is characterized in that cracks are generated on the metal coating film when the temperatures of the first molded product and the metal coating film are changed after the process (c), and thereby an electromagnetic wave transmission performance is imparted to the metal coating film ; and that the first material and a second material which constitutes the metal coating film have coefficients of thermal expansion different from each other. a process (a) in which a first mold and a second mold are mold-clamped, a first material is injected into a first space between the first mold and the second mold , and thereby the first molded product comprising the first material is formed; a process (b) in which after the first mold and the second mold are mold-opened, the first molded product is moved with respect to the second mold between the first mold and the second mold ; and a process (c) in which after the process (b), the first mold and the second mold are mold-clamped, and the metal coating film is formed on the surface of the first molded product by a first film-forming part comprised in the second mold ; wherein the method is characterized in that cracks are generated on the metal coating film when the temperatures of the first molded product and the metal coating film are changed after the process (c), and thereby an electromagnetic wave transmission performance is imparted to the metal coating film ; and that the first material and a second material which constitutes the metal coating film have coefficients of thermal expansion different from each other.
A device of protection against overvoltages capable of protecting a power supply line, comprising: a first branch comprising a break-over diode (D) in series with an avalanche diode (d), said diodes being connected to a same node (C) of the first branch called midpoint; a switch (SW) controllable in an off state and in an on state, in parallel with the first branch; and a circuit for controlling the switch (SW), characterized in that the circuit for controlling is connected across the avalanche diode (d), wherein the control circuit comprises a first resistor (R1) connected in parallel with the avalanche diode (d), the end of the first resistor (R1) connected to the midpoint (C) of the first branch being further coupled to a control node of the switch (SW). a first branch comprising a break-over diode (D) in series with an avalanche diode (d), said diodes being connected to a same node (C) of the first branch called midpoint; a switch (SW) controllable in an off state and in an on state, in parallel with the first branch; and a circuit for controlling the switch (SW), characterized in that the circuit for controlling is connected across the avalanche diode (d), wherein the control circuit comprises a first resistor (R1) connected in parallel with the avalanche diode (d), the end of the first resistor (R1) connected to the midpoint (C) of the first branch being further coupled to a control node of the switch (SW).
A method for the evaluation of signals from a range finder , in particular a laser range finder, wherein the range finder carries out measurements cyclically, wherein for each measurement, the range finder outputs a plurality of measuring points , wherein each measuring point indicates a distance, wherein the range finder measures distances in a plurality of directions and a horizontal angle is associated with each measuring point , wherein a plurality of the measuring points are differentiated into meaningful signals and interfering signals on the basis of the distance, wherein measuring points with a distance below a first limiting value are identified as interfering signals and measuring points above the first limiting value are identified as meaningful signals , wherein the number of interfering signals is determined and a warning signal is emitted when the number of interfering signals satisfies a predetermined condition, wherein interfering signals are differentiated into dust signals and debris signals , wherein interfering signals with a distance below a second limiting value are identified as debris signals and interfering signals above the second limiting value are identified as dust signals . wherein the range finder carries out measurements cyclically, wherein for each measurement, the range finder outputs a plurality of measuring points , wherein each measuring point indicates a distance, wherein the range finder measures distances in a plurality of directions and a horizontal angle is associated with each measuring point , wherein a plurality of the measuring points are differentiated into meaningful signals and interfering signals on the basis of the distance, wherein measuring points with a distance below a first limiting value are identified as interfering signals and measuring points above the first limiting value are identified as meaningful signals , wherein the number of interfering signals is determined and a warning signal is emitted when the number of interfering signals satisfies a predetermined condition, wherein interfering signals are differentiated into dust signals and debris signals , wherein interfering signals with a distance below a second limiting value are identified as debris signals and interfering signals above the second limiting value are identified as dust signals .
Food preparation appliance with a food preparation vessel , a lid which can be placed on the food preparation vessel , an attachment part which can be placed on the food preparation vessel instead of the lid , wherein the attachment part comprises a first part and a second part (20 to 26); with a locking device for locking the lid placed on the food preparation vessel and for locking the attachment part placed on the food preparation vessel , a sensor which is triggered when the placed lid is locked by the locking device, and which is triggered when the placed attachment part is locked by the locking device, wherein the sensor is not triggered when only one part of the attachment part is placed on the food preparation vessel and locked.
A lamp post , having an opening closed with a door, said opening allowing for accessing the interior of the lamp post, provided for electric connection means, wherein a reinforcement element of a height (H) exceeding the height (h) of the opening is glued to the internal wall of the lamp post , said reinforcement element enhancing the flexural and torsional strength of the lamp post decreased as a result of cutting therein said opening , characterised in that, the reinforcement element is in the form of a longitudinal, extruded profile made from aluminium or aluminium alloy extending along the longitudinal axis of the lamp post , said profile in cross section having the following: - two arch-shaped arms , each of which is glued to the internal walls of the lamp post on the opposite sides of the opening , - one side wall extending from each of the arch-shaped arms towards the interior of the lamp post , and - a central wall connecting the side walls in such a manner that in the cross section the side walls and the central wall form a shape resembling the letter U, wherein on the surface of the central wall facing towards the inside of the profile there is a longitudinal rail provided for fastening thereon electric connection means, and on the internal surfaces of the side walls there are grooves facing each other provided for mounting therein locking means for the door for closing the opening . - two arch-shaped arms , each of which is glued to the internal walls of the lamp post on the opposite sides of the opening , - one side wall extending from each of the arch-shaped arms towards the interior of the lamp post , and - a central wall connecting the side walls in such a manner that in the cross section the side walls and the central wall form a shape resembling the letter U,
A LIDAR system comprising: an imaging sensor optically aligned with imaging optics along a first optical path ; a laser source optically aligned with laser optics along a second optical path ; and a single scanning mechanism aligned with both the first optical path and the second optical path for directing outgoing laser illumination from the laser source in a scanning direction and for directing incoming laser return illumination from the scanning direction; wherein the first optical path does not pass through the laser optics; wherein the second optical path does not pass through the imaging optics; wherein the single scanning mechanism is a single Risley prism having one or more prism elements ; wherein the Risley prism has a diameter, wherein the imaging optics have a diameter, and wherein the laser optics have a diameter, wherein the diameter of the Risley prism is greater than the diameters of the laser optics and imaging optics added together to prevent optical vignetting. an imaging sensor optically aligned with imaging optics along a first optical path ; a laser source optically aligned with laser optics along a second optical path ; and a single scanning mechanism aligned with both the first optical path and the second optical path for directing outgoing laser illumination from the laser source in a scanning direction and for directing incoming laser return illumination from the scanning direction; wherein the first optical path does not pass through the laser optics; wherein the second optical path does not pass through the imaging optics; wherein the single scanning mechanism is a single Risley prism having one or more prism elements ; wherein the Risley prism has a diameter, wherein the imaging optics have a diameter, and wherein the laser optics have a diameter, wherein the diameter of the Risley prism is greater than the diameters of the laser optics and imaging optics added together to prevent optical vignetting.
A method, comprising: - receiving a bitstream comprising encoded image data, - forming from said bitstream a set of reference pixels having reference pixel values for intra-picture directional prediction, - predicting a pixel in a rectangular predicted image block by intra-picture directional prediction by using values of one or more selected reference pixels in forming a value of said predicted pixel, wherein the selected reference pixels are selected from a prediction direction with respect to the predicted pixel, said prediction direction being a wide-angle prediction direction that forms an obtuse angle with a top-left direction of said predicted pixel and has been selected from a set of prediction directions, the set of prediction directions being independent of a shape of said predicted image block, and a context selection for entropy decoding of said prediction direction depending on the shape of said predicted image block, - repeating the pixel prediction for a number of pixels to form said predicted image block, and - using said predicted image block in decoding an image block from said bitstream to obtain a decoded image block. - receiving a bitstream comprising encoded image data, - forming from said bitstream a set of reference pixels having reference pixel values for intra-picture directional prediction, - predicting a pixel in a rectangular predicted image block by intra-picture directional prediction by using values of one or more selected reference pixels in forming a value of said predicted pixel, wherein the selected reference pixels are selected from a prediction direction with respect to the predicted pixel, said prediction direction being a wide-angle prediction direction that forms an obtuse angle with a top-left direction of said predicted pixel and has been selected from a set of prediction directions, the set of prediction directions being independent of a shape of said predicted image block, and a context selection for entropy decoding of said prediction direction depending on the shape of said predicted image block, - repeating the pixel prediction for a number of pixels to form said predicted image block, and - using said predicted image block in decoding an image block from said bitstream to obtain a decoded image block.
A method of preparing a magnetic cesium adsorbent, comprising: (a) preparing a metal hexacyanoferrate; (b) preparing a metal hexacyanoferrate having a rhombohedral crystal structure through a hydrothermal reaction at 120 to 200 °C under a pressure of 2 to 15 bar for 20 minutes to 20 hours of the metal hexacyanoferrate; and (c) removing and drying water or an aqueous solution, wherein, in step (a), the metal hexacyanoferrate has a cubic crystal structure. (a) preparing a metal hexacyanoferrate; (b) preparing a metal hexacyanoferrate having a rhombohedral crystal structure through a hydrothermal reaction at 120 to 200 °C under a pressure of 2 to 15 bar for 20 minutes to 20 hours of the metal hexacyanoferrate; and (c) removing and drying water or an aqueous solution,
A veterinary composition comprising artesunate or a salt thereof, and a pharmaceutically acceptable excipient, for use for preventing and/or treating leishmaniosis in a dog.
A method of controlling pressure of a hydraulic fluid in a hydraulic fluid chamber of a high-pressure compressor , the pressure of the hydraulic fluid in the hydraulic fluid chamber is increased towards a desired compressor start-up pressure, wherein the pressure increase of the hydraulic fluid in the hydraulic fluid chamber is controlled by a control element and a hydraulic injection pump assembly , wherein the pressure increase is performed in a period of time while the compressor is not in operation between stopping and subsequently starting the compressor again. wherein the pressure increase of the hydraulic fluid in the hydraulic fluid chamber is controlled by a control element and a hydraulic injection pump assembly , wherein the pressure increase is performed in a period of time while the compressor is not in operation between stopping and subsequently starting the compressor again.