mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for cyclone separation of a fluid flow into essentially a gas phase fraction and a liquid phase fraction, by bringing the fluid flow into rotation so that said fluid flow is separated into a central zone essentially containing the gas phase fraction, and an outer annular zone essentially containing the liquid phase fraction, comprising: - a housing having an upstream fluid inlet ; - a swirl element for rotation of the fluid flow being located in the housing downstream of the fluid inlet ; - a gas phase outlet having an opening being opened to the central zone of the housing downstream of the swirl element ; and - a liquid phase outlet connecting to the outer zone of the housing downstream of the swirl element ; whereby the gas phase outlet and the liquid phase outlet both connect to a common collecting chamber outside the housing , wherein the apparatus further comprises at least one permeable flow guide located centrally in the housing , which permeable flow guide connects to the gas phase outlet , and characterised in that the permeable flow guide located centrally in the housing connecting to the gas phase outlet comprises a secondary gas extraction device that is located coaxially with the liquid phase outlet on a distance of the opening of the gas phase outlet and which secondary gas extraction device connects to the gas phase outlet with a coaxial gas retrieval pipe , the surface of the cross-section of the gas retrieval pipe being smaller than the surface of the cross-section of the secondary gas extraction device . - a housing having an upstream fluid inlet ; - a swirl element for rotation of the fluid flow being located in the housing downstream of the fluid inlet ; - a gas phase outlet having an opening being opened to the central zone of the housing downstream of the swirl element ; and - a liquid phase outlet connecting to the outer zone of the housing downstream of the swirl element ;
A method for determining an accurate amount of consumable in a print cartridge , wherein the print cartridge has a cartridge identification associated therewith and the print cartridge has an expected print yield that is different than an expected print yield of a standard yield cartridge manufactured for use in the printing device , the method comprising: determining that a print cartridge installed in a printing device has a cartridge identification associated therewith; determining one more characteristic of the print cartridge based upon the cartridge identification; monitoring communication by means of a peripheral device between a processor and the printing device to determine that the printing device has printed images, wherein the processor is located external to the printing device ; determining an amount of consumable used to print the images; determining an accurate amount of remaining consumable based upon the amount of consumable used to print the images and the cartridge identification by means of the peripheral device; wherein the peripheral device is located external to the printing device ; and wherein the print cartridge has a cartridge chip that is configured to communicate with the printing device and the cartridge identification is stored in a memory of the cartridge chip and wherein the cartridge identification is a serial number that is different than an original equipment manufacturer serial number. determining that a print cartridge installed in a printing device has a cartridge identification associated therewith; determining one more characteristic of the print cartridge based upon the cartridge identification; monitoring communication by means of a peripheral device between a processor and the printing device to determine that the printing device has printed images, wherein the processor is located external to the printing device ; determining an amount of consumable used to print the images; determining an accurate amount of remaining consumable based upon the amount of consumable used to print the images and the cartridge identification by means of the peripheral device; wherein the peripheral device is located external to the printing device ; and wherein the print cartridge has a cartridge chip that is configured to communicate with the printing device and the cartridge identification is stored in a memory of the cartridge chip and wherein the cartridge identification is a serial number that is different than an original equipment manufacturer serial number.
A coating drying method for conveying a coated work piece into a drying oven and drying a coating film of the work piece in the drying oven, the work piece being mounted on a conveyance hanger, and is conveyed into the drying oven, the method comprising: taking out air from the drying oven, and cooling the air such that each of at least part of moisture and at least part of a VOC which are contained in the air is condensed to be removed from the air; and heating the air after the cooling, and returning the heated air into the drying oven, wherein a heat pump whose heat absorption source is the air taken out from the drying oven and whose heat radiation source is the air after the cooling is provided, and by using the heat pump, the cooling of the air and the heating of the air are performed, characterized in that the method further comprises preliminarily cooling the air taken out from the drying oven before the cooling by the heat pump, and in the cooling of the air, the moisture contained in the air taken out from the drying oven is condensed to be removed from the air such that a dew-point temperature of the air inside the drying oven becomes equal to or less than a surface temperature of the hanger to be conveyed into the drying oven. taking out air from the drying oven, and cooling the air such that each of at least part of moisture and at least part of a VOC which are contained in the air is condensed to be removed from the air; and heating the air after the cooling, and returning the heated air into the drying oven, wherein a heat pump whose heat absorption source is the air taken out from the drying oven and whose heat radiation source is the air after the cooling is provided, and by using the heat pump, the cooling of the air and the heating of the air are performed, characterized in that the method further comprises preliminarily cooling the air taken out from the drying oven before the cooling by the heat pump, and in the cooling of the air, the moisture contained in the air taken out from the drying oven is condensed to be removed from the air such that a dew-point temperature of the air inside the drying oven becomes equal to or less than a surface temperature of the hanger to be conveyed into the drying oven.
A seed level managing system comprising: a seed tank that contains seeds; a plurality of seed level sensors placed on a sidewall of the seed tank; a surface detecting sensor for detecting the top surface of seeds in the seed tank ; and a controller comprising one or more processors; one or more memory modules; and machine readable instructions stored in the one or more memory modules that, when executed by the one or more processors, cause the controller to: receive first information from the plurality of seed level sensors; receive second information from the surface detecting sensor; and determine a number of the seeds in the seed tank based on the first information and the second information. a seed tank that contains seeds; a plurality of seed level sensors placed on a sidewall of the seed tank; a surface detecting sensor for detecting the top surface of seeds in the seed tank ; and a controller comprising one or more processors; one or more memory modules; and machine readable instructions stored in the one or more memory modules that, when executed by the one or more processors, cause the controller to: receive first information from the plurality of seed level sensors; receive second information from the surface detecting sensor; and determine a number of the seeds in the seed tank based on the first information and the second information. one or more processors; one or more memory modules; and machine readable instructions stored in the one or more memory modules that, when executed by the one or more processors, cause the controller to: receive first information from the plurality of seed level sensors; receive second information from the surface detecting sensor; and determine a number of the seeds in the seed tank based on the first information and the second information. receive first information from the plurality of seed level sensors; receive second information from the surface detecting sensor; and determine a number of the seeds in the seed tank based on the first information and the second information.
An oral care product applicator , comprising: a housing comprising a volume for receiving a dispenser ; a dispenser disposed in the housing , and an actuator for manipulating the dispenser , wherein the dispenser comprises: at least two storage chambers , at least one seal that keeps contents stored in the at least two storage chambers from exiting the dispenser, a mixing chamber , connected to the at least two storage chambers , that receives and sufficiently mixes contents from the at least two storage chambers , and a dispensing nozzle in fluid communication with the mixing chamber , characterized in that at least one of the at least two storage chambers comprises an anchor portion that engages with the housing , wherein the anchor portion comprises a surface and a slot formed through the surface , and wherein the dispensing nozzle is positioned at one end of the applicator and the anchor portion is positioned at another end of the applicator. a housing comprising a volume for receiving a dispenser ; a dispenser disposed in the housing , and an actuator for manipulating the dispenser , at least two storage chambers , at least one seal that keeps contents stored in the at least two storage chambers from exiting the dispenser, a mixing chamber , connected to the at least two storage chambers , that receives and sufficiently mixes contents from the at least two storage chambers , and a dispensing nozzle in fluid communication with the mixing chamber , characterized in that at least one of the at least two storage chambers comprises an anchor portion that engages with the housing , wherein the anchor portion comprises a surface and a slot formed through the surface , and wherein the dispensing nozzle is positioned at one end of the applicator and the anchor portion is positioned at another end of the applicator.
Lamp which comprises at least one light source disposed in a housing having at least one light exit opening and at least one reflector , which is shaped in such a way that the light coming from the light source is divided into at least two light beams, wherein the light exit opening is at least partially covered by a cover panel , characterized in that the cover panel comprises two surface sections , on which the respective corresponding light beams impinge, and that the surface sections are shaped in such a way that the majority of the light beams directed onto a respective surface section impinge on the surface section at an angle of incidence which is less than 60°, in order to reduce the reflections on the cover panel .
A process for reducing the amount of undesired components in an oil composition, comprising: (a) providing a crude oil composition comprising undesired hydrophilic components, undesired lipophilic components selected from environmental pollutants and/or cholesterol, and free fatty acids, (b) subjecting the crude oil composition to an aqueous fluid processing step, wherein undesired hydrophilic components present in the oil composition are separated from the crude oil composition under conditions to obtain an oil composition which comprises free fatty acids in an amount which is effective as an internal volatile working fluid, wherein said aqueous fluid processing step (b) comprises contacting the crude oil composition with an aqueous fluid comprising a sub-equimolar amount of base with regard to the molar amount of free fatty acids in the crude oil composition, whereby the free fatty acids present in the crude oil composition are partially neutralized, and partially removed. (c) subjecting the oil composition after step (b) to a stripping processing step in the presence of free fatty acids as an internal volatile working fluid, wherein lipophilic components, particularly undesired lipophilic components, are separated from the oil composition together with free fatty acids, and (d) optionally subjecting the composition from step (c) to further processing steps, wherein before step (c) no external volatile working fluid particularly comprising fatty acid esters, fatty acid amides, free fatty acids, hydrocarbons and mixtures thereof is added to the oil composition. (a) providing a crude oil composition comprising undesired hydrophilic components, undesired lipophilic components selected from environmental pollutants and/or cholesterol, and free fatty acids, (b) subjecting the crude oil composition to an aqueous fluid processing step, wherein undesired hydrophilic components present in the oil composition are separated from the crude oil composition under conditions to obtain an oil composition which comprises free fatty acids in an amount which is effective as an internal volatile working fluid, wherein said aqueous fluid processing step (b) comprises contacting the crude oil composition with an aqueous fluid comprising a sub-equimolar amount of base with regard to the molar amount of free fatty acids in the crude oil composition, whereby the free fatty acids present in the crude oil composition are partially neutralized, and partially removed. (c) subjecting the oil composition after step (b) to a stripping processing step in the presence of free fatty acids as an internal volatile working fluid, wherein lipophilic components, particularly undesired lipophilic components, are separated from the oil composition together with free fatty acids, and (d) optionally subjecting the composition from step (c) to further processing steps,
A method performed by a wireless communication node , the method comprising: transmitting, at a first layer, first configuration information to a wireless communication device , wherein the first configuration information comprises at least one parameter related to a discontinuous reception (DRX) of the wireless communication device ; transmitting, at a second layer lower than the first layer, second configuration information to the wireless communication device , wherein the second configuration information comprises an update to at least part of the first configuration information; and determining a modification step size for said DRX related parameter, wherein the second configuration information indicates an update to the at least one parameter according to the modification step size, wherein: an effective time of the update starts from at least one of: a next time slot after the wireless communication device receives the second configuration information, and a next DRX cycle after the wireless communication device receives the second configuration information; and the update is effective until at least one of: an end of a DRX cycle where the effective time starts, and a next update related to the DRX of the wireless communication device . transmitting, at a first layer, first configuration information to a wireless communication device , wherein the first configuration information comprises at least one parameter related to a discontinuous reception (DRX) of the wireless communication device ; transmitting, at a second layer lower than the first layer, second configuration information to the wireless communication device , wherein the second configuration information comprises an update to at least part of the first configuration information; and determining a modification step size for said DRX related parameter, wherein the second configuration information indicates an update to the at least one parameter according to the modification step size, wherein: an effective time of the update starts from at least one of: a next time slot after the wireless communication device receives the second configuration information, and a next DRX cycle after the wireless communication device receives the second configuration information; and the update is effective until at least one of: an end of a DRX cycle where the effective time starts, and a next update related to the DRX of the wireless communication device .
A method for producing a ceramic honeycomb structure comprising a ceramic honeycomb body having large numbers of longitudinal cells partitioned by porous cell walls having porosity of 50% or more, and a peripheral wall formed on a peripheral surface of said ceramic honeycomb body, comprising the steps of extruding a moldable ceramic material to form a honeycomb-structured ceramic green body; machining a peripheral portion of said green body or a sintered body obtained from said green body to remove part of cell walls in the peripheral portion, thereby obtaining a ceramic honeycomb body having longitudinal grooves on a peripheral surface ; and filling said grooves on the peripheral surface with a coating material of a thickness of 0.1 to 3 mm comprising ceramic aggregate having an average particle size of 1 μm or more to form said peripheral wall, characterized in that said peripheral surface is coated with an aqueous dispersion of colloidal metal oxide so that the colloidal metal oxide intrudes into pores in cell walls constituting the grooves on the peripheral surface as well as cell walls inward of same, and dried, before filling said groove with said coating material.
A baby carriage with a chassis , comprising lateral articulated joints , each having connections for struts of the chassis in the form of a front wheel strut and/or a rear wheel strut , as well as for a leg of a push bar , a) wherein a locking body is allowed to slide into a lock-in recess in case of a strut of the chassis being completely folded out, characterized in that b) a thrust surface for a cam is provided at a part of the articulation joint , which is linked in a non-twistable fashion to a connection for a leg of the push bar , which cam is connected or coupled to the locking body or to a part guided within the lock-in recess , in order to control that in radial direction of the regarding articulation joint , c) wherein at least one coupling element, namely the locking body biased in its direction of movement or the lock-in recess , is located at the strut of the chassis, while at least another coupling element, which is in engagement with the first coupling element in order to lock the strut of the chassis, is located at a part of the articulation joint , especially at its housing or at an extension thereof, d) and wherein the pivot axis of that strut of the chassis, which is not rigidly connected to the housing of the articulation joint , is arranged excentrically to the pivot axis for the leg of the push bar . a) wherein a locking body is allowed to slide into a lock-in recess in case of a strut of the chassis being completely folded out, characterized in that b) a thrust surface for a cam is provided at a part of the articulation joint , which is linked in a non-twistable fashion to a connection for a leg of the push bar , which cam is connected or coupled to the locking body or to a part guided within the lock-in recess , in order to control that in radial direction of the regarding articulation joint , c) wherein at least one coupling element, namely the locking body biased in its direction of movement or the lock-in recess , is located at the strut of the chassis, while at least another coupling element, which is in engagement with the first coupling element in order to lock the strut of the chassis, is located at a part of the articulation joint , especially at its housing or at an extension thereof, d) and wherein the pivot axis of that strut of the chassis, which is not rigidly connected to the housing of the articulation joint , is arranged excentrically to the pivot axis for the leg of the push bar .
A system for a craft, comprised of: • a thrust providing device having a propeller or fan, with an outside circular perimeter or circumference delimiting an intake region ; • at least a wing, wherein said wing has a curvature forming a fore-and-aft channel, said wing having a slanted trailing edge; • and a device for pivotally coupling and adjusting, responsible for controlling a relative position of said wing and said propeller or fan; the device being configured to place said wing and said propeller or fan in a position adjacent to each other at a predetermined angle, a position in which a section of said slanted trailing edge substantially coincides with a fraction of said outside circular perimeter or circumference of the propeller or fan; whereby to disturb the intake fluid stream to the propeller or fan such as to create a variable fluid-dynamic force on said wing, thereby being able to provide control and augment a propulsion parameter for a craft. • a thrust providing device having a propeller or fan, with an outside circular perimeter or circumference delimiting an intake region ; • at least a wing, wherein said wing has a curvature forming a fore-and-aft channel, said wing having a slanted trailing edge; • and a device for pivotally coupling and adjusting, responsible for controlling a relative position of said wing and said propeller or fan;
An electrical interface water ingress detection method in an electronic device comprising a first electrical interface, a resistor module, and an alternating current signal source, wherein one end of the resistor module is electrically connected to a first pin of the first electrical interface, and the other end is electrically connected to the alternating current signal source, a ground pin of the first electrical interface is grounded when the first electrical interface works, and the electrical interface water ingress detection method comprises: outputting, by the alternating current signal source of the electronic device, an alternating current detection signal; characterized by : detecting, by the electronic device, a maximum voltage value and a minimum voltage value that are on the first pin within a period of the alternating current detection signal; and if a difference between the maximum voltage value and the minimum voltage value is less than a first threshold, determining, by the electronic device, that water enters the first electrical interface. outputting, by the alternating current signal source of the electronic device, an alternating current detection signal; characterized by : detecting, by the electronic device, a maximum voltage value and a minimum voltage value that are on the first pin within a period of the alternating current detection signal; and if a difference between the maximum voltage value and the minimum voltage value is less than a first threshold, determining, by the electronic device, that water enters the first electrical interface. detecting, by the electronic device, a maximum voltage value and a minimum voltage value that are on the first pin within a period of the alternating current detection signal; and if a difference between the maximum voltage value and the minimum voltage value is less than a first threshold, determining, by the electronic device, that water enters the first electrical interface.