mhurhangee/ep-ind-claims huggingface dataset:
A liquid fluid filter assembly for filtration of water including a cleaning device for chemical cleaning of a filter, wherein the cleaning device comprises injection means arranged to inject a cleaning chemical into a fluid flow through the filter, the cleaning device comprises a circulation conduit which provides a closed loop fluid flow through the filter in the same direction as the water flow during production, wherein said cleaning device is designed such that a fluid which has been filtered by the filter is used in the closed loop fluid flow and said injection means is arranged to inject the cleaning chemical into the fluid of said closed loop fluid flow, and a control device controlling at least one valve (36, 46, 44, 52) and a circulation pump arranged inside the circulation conduit activating said closed loop fluid flow, characterized in that the injection means comprises a metering pump or metering valve for dosing the at least one cleaning chemical into the closed loop fluid flow and that said injection means is controlled by said control device and said injection means and said control device are designed such that said at least one cleaning chemical is injected into the fluid in intervals, wherein the control device is designed such that the control device defines the required amount of cleaning chemical to be injected and gives a required signal to the metering pump or metering valve to pump or inject just this defined amount of cleaning chemical into the fluid flow. the cleaning device comprises injection means arranged to inject a cleaning chemical into a fluid flow through the filter, the cleaning device comprises a circulation conduit which provides a closed loop fluid flow through the filter in the same direction as the water flow during production, wherein said cleaning device is designed such that a fluid which has been filtered by the filter is used in the closed loop fluid flow and said injection means is arranged to inject the cleaning chemical into the fluid of said closed loop fluid flow, and a control device controlling at least one valve (36, 46, 44, 52) and a circulation pump arranged inside the circulation conduit activating said closed loop fluid flow, characterized in that the injection means comprises a metering pump or metering valve for dosing the at least one cleaning chemical into the closed loop fluid flow and that said injection means is controlled by said control device and said injection means and said control device are designed such that said at least one cleaning chemical is injected into the fluid in intervals, wherein the control device is designed such that the control device defines the required amount of cleaning chemical to be injected and gives a required signal to the metering pump or metering valve to pump or inject just this defined amount of cleaning chemical into the fluid flow.
A pneumatic tire comprising sidewall portions at least one of which is provided in the outer surface thereof with an axially outwardly protruding protector, the protector composed of patterned unit protrusions arranged at intervals in the tire circumferential direction, wherein each of the patterned unit protrusions comprises a first protruding portion, a second protruding portion and a third protruding portion, the first protruding portion and the second protruding portion extend in a tire radial direction and are spaced apart from each other in the tire circumferential direction, the third protruding portion connects between the first protruding portion and the second protruding portion, the radial dimension of the first protruding portion is more than the radial dimension of the second protruding portion, and the third protruding portion is connected with the second protruding portion at a position radially away from the radially outer and inner ends (11a, 11b) of the second protruding portion characterized in that the circumferential dimension of the first protruding portion is substantially the same as the circumferential dimension of the second protruding portion.
An automatic, thermal print on demand, labeling machine used to apply thermographic labels to produce, wherein a label applicator having a plurality of bellows carried on an indexable rotary head is utilized to transfer individual thermographic labels from a label carrier strip, onto the tip of a single bellow, and thereafter onto individual items of produce wherein said rotary head has a horizontal axis of rotation, comprising: a thermal print head positioned above said axis of rotation of said rotary head, a rotatable, cylindrical platen positioned above said axis of rotation of said rotary head and opposite said thermal print head means for moving said label carrier strip downwardly between said platen and said thermal print head a thermal print region between said thermal print head and said platen, at which region said thermal print head transfers heat to each of said thermographic labels to apply a code to said labels a label stripper pin positioned between said rotating platen and a bellow of the rotary head arranged to receive a label, said label stripper pin being positioned a distance from said thermal print region wherein said distance is sufficiently small that a label is printed and dispensed onto a bellow in one index of said rotary head, wherein each index of the rotary head, about the axis of rotation, rotates a subsequent bellow to receive a label. a thermal print head positioned above said axis of rotation of said rotary head, a rotatable, cylindrical platen positioned above said axis of rotation of said rotary head and opposite said thermal print head means for moving said label carrier strip downwardly between said platen and said thermal print head a thermal print region between said thermal print head and said platen, at which region said thermal print head transfers heat to each of said thermographic labels to apply a code to said labels a label stripper pin positioned between said rotating platen and a bellow of the rotary head arranged to receive a label, said label stripper pin being positioned a distance from said thermal print region wherein said distance is sufficiently small that a label is printed and dispensed onto a bellow in one index of said rotary head, wherein each index of the rotary head, about the axis of rotation, rotates a subsequent bellow to receive a label.
A fuel injection nozzle comprising: a nozzle body, the nozzle body defining a central bore; and a fuel supply coupled to the nozzle body and is in fluid communication with the central bore wherein fuel enters portion of the central bore, characterized by a fuel atomizer disposed in the central bore, the fuel atomizer defining a spill-return bore and a swirl chamber, the swirl chamber in fluid communication with the central bore, the spill-return bore including a return swirler proximate the swirl chamber; and an air supply pump coupled to the fuel atomizer and in fluid communication with the spill-return bore, wherein the air supply pump is configured to selectively inject air into the swirl chamber through the spill-return bore. a nozzle body, the nozzle body defining a central bore; and a fuel supply coupled to the nozzle body and is in fluid communication with the central bore wherein fuel enters portion of the central bore, characterized by a fuel atomizer disposed in the central bore, the fuel atomizer defining a spill-return bore and a swirl chamber, the swirl chamber in fluid communication with the central bore, the spill-return bore including a return swirler proximate the swirl chamber; and an air supply pump coupled to the fuel atomizer and in fluid communication with the spill-return bore, wherein the air supply pump is configured to selectively inject air into the swirl chamber through the spill-return bore.
A method of detecting Trichinella in a tissue extract sample, wherein at least 90% of the particles in the tissue extract sample have a diameter of 200 μm or less (D90 ≤ 200 μm) and wherein in the preparation of the tissue extract sample no enzymatic and/or chemical cleavage of the tissue takes place.
A method of back-pressure control in a transport network, the method being performed by a first network node and comprising: monitoring a buffer state of a buffer; determining a condition indicative of back-pressure in response to a change of the buffer state passing a predetermined limit; in response to determining the condition indicative of back-pressure, creating a back-pressure notification message including a combination of: i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier; and transmitting the back-pressure notification message to a second network node; wherein the flow identifier includes at least one of a Packet Data Convergence Protocol, PDCP, Flow Identification, FID a PDCP Group FID or a PDCP Multicast Group FID. monitoring a buffer state of a buffer; determining a condition indicative of back-pressure in response to a change of the buffer state passing a predetermined limit; in response to determining the condition indicative of back-pressure, creating a back-pressure notification message including a combination of: i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier; and i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier; and transmitting the back-pressure notification message to a second network node; wherein the flow identifier includes at least one of a Packet Data Convergence Protocol, PDCP, Flow Identification, FID a PDCP Group FID or a PDCP Multicast Group FID.
A computing device memory system, comprising: a memory device; a memory physical layer communicatively connected to the memory device; a first input/output, IO, voltage supply electrically connected to the memory device and to the memory physical layer; and a second 10 voltage supply electrically connected to the memory device and to the memory physical layer, wherein the memory device and the physical layer are configured to communicate data of a memory transaction using a 3 level pulse amplitude modulation, PAM, 10 scheme characterized by: generating a first 3 level PAM signal by selectively electrically connecting, by a first pull-up circuit (312a, 312c), the first 10 voltage supply to an output (322a, 322b); generating a second 3 level PAM signal by selectively electrically connecting, by a second pull-up circuit (312b, 312d), the second IO voltage supply to the output (322a, 322b); and generating a third 3 level PAM signal by selectively electrically connecting, by a first pull-down circuit (314a, 314b), a ground to the output (322a, 322b). a memory device; a memory physical layer communicatively connected to the memory device; a first input/output, IO, voltage supply electrically connected to the memory device and to the memory physical layer; and a second 10 voltage supply electrically connected to the memory device and to the memory physical layer, wherein the memory device and the physical layer are configured to communicate data of a memory transaction using a 3 level pulse amplitude modulation, PAM, 10 scheme characterized by: generating a first 3 level PAM signal by selectively electrically connecting, by a first pull-up circuit (312a, 312c), the first 10 voltage supply to an output (322a, 322b); generating a second 3 level PAM signal by selectively electrically connecting, by a second pull-up circuit (312b, 312d), the second IO voltage supply to the output (322a, 322b); and generating a third 3 level PAM signal by selectively electrically connecting, by a first pull-down circuit (314a, 314b), a ground to the output (322a, 322b). generating a first 3 level PAM signal by selectively electrically connecting, by a first pull-up circuit (312a, 312c), the first 10 voltage supply to an output (322a, 322b); generating a second 3 level PAM signal by selectively electrically connecting, by a second pull-up circuit (312b, 312d), the second IO voltage supply to the output (322a, 322b); and generating a third 3 level PAM signal by selectively electrically connecting, by a first pull-down circuit (314a, 314b), a ground to the output (322a, 322b).
A multilayer film including two outer layers, at least one tie layer, at least one inner layer, and a gas barrier layer, wherein the gas barrier layer is arranged between the outer layers, and at least one of the outer layers is a foam layer, wherein the multilayer film has an elastic modulus of about 13.78 MPa to about 275.6 MPa when measured according to ASTM D882, and wherein at least one of the outer foam layer, inner layers, tie layers, and barrier layer comprises a vinyl-bond rich triblock copolymer.
A non-invasive ventilation system comprising: at least one outer tube with a proximal lateral end of the at least one outer tube adapted to extend to a side of a nose, wherein the at least one outer tube comprises a wall and a throat section; at least one coupler at a distal section of the at least one outer tube for impinging at least one nostril and positioning the at least one outer tube relative to the at least one nostril; at least one jet nozzle positioned within the outer tube at the proximal lateral end of the at least one outer tube and in fluid communication with a pressurized gas supply; at least one opening in the distal section adapted to be in fluid communication with the nostril; characterized by at least one aperture in the wall of the at least one outer tube in fluid communication with ambient air, wherein at least a portion of the at least aperture is downstream of the at least onejet nozzle. at least one outer tube with a proximal lateral end of the at least one outer tube adapted to extend to a side of a nose, wherein the at least one outer tube comprises a wall and a throat section; at least one coupler at a distal section of the at least one outer tube for impinging at least one nostril and positioning the at least one outer tube relative to the at least one nostril; at least one jet nozzle positioned within the outer tube at the proximal lateral end of the at least one outer tube and in fluid communication with a pressurized gas supply; at least one opening in the distal section adapted to be in fluid communication with the nostril; characterized by at least one aperture in the wall of the at least one outer tube in fluid communication with ambient air, wherein at least a portion of the at least aperture is downstream of the at least onejet nozzle.
A flywheel for stabilizing the position of a spacecraft, with - a hub means for fastening the flywheel; - a flywheel ring which externally surrounds the hub means circumferentially at a distance; - a support means for supporting the flywheel ring on the hub means; and with - a vibration damping device (6, 8) with a tuned mass damper means which, with respect to a rotation axis of the flywheel, is axially movable back and forth relative to the flywheel ring; characterized in that: - the tuned mass damper means is fastened on the flywheel ring and/or on the support means by a fastening means; - the fastening means is designed in such a manner that it enables axial movability of the tuned mass damper means; and - the tuned mass damper means has a plurality of tuned mass damper elements which are held, distributed on a perimeter at a distance, by the fastening means. - a hub means for fastening the flywheel; - a flywheel ring which externally surrounds the hub means circumferentially at a distance; - a support means for supporting the flywheel ring on the hub means; and with - a vibration damping device (6, 8) with a tuned mass damper means which, with respect to a rotation axis of the flywheel, is axially movable back and forth relative to the flywheel ring; - the tuned mass damper means is fastened on the flywheel ring and/or on the support means by a fastening means; - the fastening means is designed in such a manner that it enables axial movability of the tuned mass damper means; and - the tuned mass damper means has a plurality of tuned mass damper elements which are held, distributed on a perimeter at a distance, by the fastening means.
A server device comprising a first transceiver unit configured to communicate with a terminal and to receive, via a session initiation protocol, a subscription message to a resource list which contains addresses of content network sources; a second transceiver unit configured to communicate with content network sources; a memory configured to store the resource list; and a content aggregation processor operably connected with the first and second transceiver and the memory, and configured to fetch content from the addresses of the content network sources and to aggregate the fetched content into a notification message of the session initiation protocol to the terminal wherein the content aggregation is open for control by the terminal and wherein at least one of a notification message size and a separation into partial notification messages of said notification message is controlled according to a parameter set by the terminal.
An agricultural combine harvester comprising: - a rotor cage surrounding a rotor, - a threshing space (g) defined between the rotor cage and the rotor, - a transition section defining an infeed to said rotor cage, the transition section disposed at a location upstream of the rotor cage, as viewed in a direction of crop flow through the combine harvester, the transition section having an inlet for receiving the crop material and a bottom wall, and - a crop conveying drum for conveying crop material to the inlet of the transition section and beneath the rotor, the drum being at least partially encased by a shroud (113, 114), the bottom wall of the transition section being substantially tangential to a lower portion of the shroud (113, 114) located beneath the drum characterized in that the transition section comprises - two side walls (146, 148) each having portions extending in a downstream direction and substantially vertical with respect to the bottom wall, the bottom wall interconnecting bottom ends of the two side walls (146, 148), a distance between the two side walls (146, 148) defining a width of the transition section that decreases in the downstream direction, - curved side walls (152, 156) each extending between the bottom wall and one of the side walls, and - a conical top wall extending between and connecting the curved side walls (152, 156). - a rotor cage surrounding a rotor, - a threshing space (g) defined between the rotor cage and the rotor, - a transition section defining an infeed to said rotor cage, the transition section disposed at a location upstream of the rotor cage, as viewed in a direction of crop flow through the combine harvester, the transition section having an inlet for receiving the crop material and a bottom wall, and - a crop conveying drum for conveying crop material to the inlet of the transition section and beneath the rotor, the drum being at least partially encased by a shroud (113, 114), the bottom wall of the transition section being substantially tangential to a lower portion of the shroud (113, 114) located beneath the drum - two side walls (146, 148) each having portions extending in a downstream direction and substantially vertical with respect to the bottom wall, the bottom wall interconnecting bottom ends of the two side walls (146, 148), a distance between the two side walls (146, 148) defining a width of the transition section that decreases in the downstream direction, - curved side walls (152, 156) each extending between the bottom wall and one of the side walls, and - a conical top wall extending between and connecting the curved side walls (152, 156).
A polyphenylene sulfide resin composition comprising 100 parts by weight of a resin composition that consists of a polyphenylene sulfide resin, which is referred to as resin (a), accounting for 99 to 60 wt% and at least one type of noncrystalline resin selected from polyetherimide resin and polyether sulfone resin, which is referred to as resin (b), accounting for 1 to 40 wt%, the sum of the resin (a) and the resin (b) accounting for 100 wt%, to which 0.1 to 10 parts by weight of an isocyanate-containing alkoxysilane compound, which is referred to as compound (c), is added, wherein the morphology is characterized in that the noncrystalline resin (b) forms an island phase and the number-average dispersed particle size of said noncrystalline resin (b) is 1,000nm or less, wherein the number-average dispersed particle size is determined as follows: prepare a ASTM No. 4 sample by molding the PPS resin (a) at a temperature +20°C above the melting peak temperature, cut out a specimen of 0.1μm or less at -20°C from the central portion in the cross sectional direction of the dumbbell sample, observe it at a magnification of 10,000 to 20,000 under a transmission electron microscope (resolution (particle image) 0.38nm, magnifying power 500,000 to 600,000), select appropriately 100 dispersed phase portions of the polyetherimide resin and/or polyether sulfone resin (b), measure each portion's maximum and minimum diameters to determine the average as its dispersed particle average size, and calculate the average over all portions to determine the number-average dispersed particle size, and wherein the amount of lower alcohols with 1 to 4 carbon atoms that are generated when pellets of said polyphenylene sulfide resin composition are thermally melted in a vacuum by heating at 350°C for 30 minutes is 0.3 mmol% or less relative to the weight of said polyphenylene sulfide resin composition.