mhurhangee/ep-ind-claims huggingface dataset:
Fuel feed device with a main body, in which an intake channel portion is configured, with at least one adjustable throttle element for controlling the free cross section of the intake channel portion, at least one fuel opening opening into the intake channel portion, a dividing wall portion being arranged in the intake channel portion upstream of the throttle element, the dividing wall portion and the throttle element dividing, in a completely open position of the throttle element, the intake channel portion upstream of the throttle element into a mixture channel, into which the fuel opening feeds fuel, and an air channel, the throttle element bearing against the dividing wall portion in a completely open position, the dividing wall portion having at least one element for increasing the surface area within the mixture channel, characterized in that the circumferential length of the mixture channel is increased here in at least one cross section perpendicularly with respect to the flow direction in comparison with a straight, planar course of the dividing wall portion in the respective cross section, the flat, planar course of the dividing wall portion running through that region of the dividing wall portion which, in this cross section, has the smallest thickness and/or the smallest spacing from the air channel.
A time-of-flight mass spectrometer having an ion source, a flight path, a single reflector with the potential distribution of a Cassini ion trap within the flight path, and an ion detector, wherein the single reflector is one halved Cassini ion trap with a housing, several inner electrodes (76, 91) and a terminating equipotential plate with electrodes, the electrodes of the equipotential plate tracing the equipotential surfaces of the potential distribution of the Cassini ion trap at the location of the equipotential plate.
Piston for a two-stroke engine working with forward scavenging, wherein the piston has a piston crown and a piston skirt, wherein the central axis of the piston skirt forms a longitudinal central axis of the piston, wherein the piston has two piston bosses, the central axis of which form a transverse axis of the piston, wherein the piston has a central plane, which contains the longitudinal central axis of the piston and extends perpendicularly to the transverse axis of the piston, wherein the piston has at least one piston pocket, which is completely located on one side of the central plane, wherein the piston pocket has a minimum distance (e) from a top side of the piston crown, wherein the piston has at least one sectional plane perpendicular to the longitudinal central axis of the piston, the distance (m) of which sectional plane from the top side of the piston crown is greater than the minimum distance (e) of the piston pocket from the piston crown, and wherein the piston skirt has a point where the central plane intersects the piston skirt in said sectional plane, characterised in that a thickened region, the maximum wall thickness (a) of which is at least 1.1 times the wall thickness (b) at the point, is located in said sectional plane in the circumferential direction between the piston pocket and said point.
A method for influencing a heating control device, to which a sensor, designed as a supply temperature sensor, is connectable via an interface, and which controls a supply temperature of a heating medium in a heating system corresponding to a control characteristic based on a sensor value measured as a resistance value, wherein the control characteristic of the heating control device is influenced by specifying a correction value (Rs) and wherein the correction value (Rs) is formed by a simulation of the sensor value while taking into account the measured sensor value, characterized in that the simulated sensor value (Rs) is provided to the interface, present in the heating control device, for the supply temperature sensor so that an influence of the characteristic curve of the heating control device is carried out without providing an additional interface and the previously-used supply temperature sensor of the heating control device is used as an input variable for the heating control system.
Device for separating tare, such as for example mud, stones, tops and the like, from agricultural products such as potatoes, onions and the like, comprising a frame in which two substantially parallel rollers are rotatably mounted, and wherein a spiral is fitted around at least part of said rollers, wherein said device comprises a scraper which is translatable in a direction substantially parallel to said rollers, wherein at least one rail is mounted above and substantially parallel to said rollers, on which rail a guide element is translatably mounted, and wherein the scraper is fixed to said guide element or forms part thereof, characterized in that the direction of the windings of adjacent spirals is opposite and in that one end of said scraper is placeable between the windings of at least some of said spirals and said rail is translatable such that the scraper is moveable from one roller to another.
Filling device for applying insulation in a cavity wall of a building, wherein the filling device comprises: - a mixing chamber for mixing insulation beads with adhesive; - a mouth having a mouth opening for, with the aid of compressed air, dispensing a mixture of insulation beads and adhesive in the cavity wall of the building; - a transition part which connects the mixing chamber with the mouth; - a beads connector arranged for connecting a beads-supply line for supplying insulation beads to the mixing chamber; - an adhesive connector arranged for connecting an adhesive-supply line for supplying adhesive to the mixing chamber; - a compressed air connector provided opposite to the mouth opening, and arranged for connecting a compressed air-supply line for supplying compressed air to the filling device in the direction of the mouth opening; wherein a cross section of the mixing chamber and the mouth, in a plane parallel to a mouth openings plane defined by the mouth opening, is substantially round, and wherein the transition part is a solid of revolution which ends tapered from the mixing chamber to the mouth, and wherein the transition part smoothly connects to the mixing chamber, and wherein the filling device comprises the adhesive-supply line, and the adhesive-supply line comprises a closing valve for closing the adhesive-supply line and a control valve for controlling an amount of adhesive through the adhesive-supply line, characterized in that the closing valve and the control valve are comprised in the adhesive-supply line in such a way that the supplied adhesive through the adhesive-supply line first passes the control valve and subsequently passes the closing valve before it is supplied to the mixing chamber. - a mixing chamber for mixing insulation beads with adhesive; - a mouth having a mouth opening for, with the aid of compressed air, dispensing a mixture of insulation beads and adhesive in the cavity wall of the building; - a transition part which connects the mixing chamber with the mouth; - a beads connector arranged for connecting a beads-supply line for supplying insulation beads to the mixing chamber; - an adhesive connector arranged for connecting an adhesive-supply line for supplying adhesive to the mixing chamber; - a compressed air connector provided opposite to the mouth opening, and arranged for connecting a compressed air-supply line for supplying compressed air to the filling device in the direction of the mouth opening;
A compound having the following Formula, wherein the compound is selected from the group consisted of the following: Compound Name n R 1 R 2 R 3 R 4 R 5 R 6 ML-A1-B 1 -CH 2 CH 2 N(CH 3) 2 =CH-CH=CH- H H or a tautomer, stereoisomer or enantiomer thereof, or a solvate, or a pharmaceutically acceptable salt thereof.
A method for performing a chemical and/or a biological assay comprising at least the following successive steps of: a) providing an assay device comprising at least one microchannel having at least an inlet and at least an outlet, said assay device further comprising restricting means designed to restrict the movement toward the outlet of microparticles introduced in the microchannel while letting a fluid to flow through the restricting means toward the outlet, b) introducing a plurality of microparticles in the microchannel via the inlet, each microparticle having a shape relative to the cross-section of the microchannel that prevents overlapping of two adjacent microparticles, c) restricting the movement of said microparticles in the microchannel toward the outlet using restricting means, d) flowing a fluid sample through the microchannel and, e) performing a biological and/or chemical read-out on each microparticle, f) while the restricting means restricts movement of the microparticles in a direction toward the outlet, moving the microparticles (101, 102, 103, 104) backward toward the inlet along the microchannel and forward toward the outlet along the microchannel, the backward and forward movement of the microparticles causing spatially and random rearrangement the microparticles relative to one another along the microchannel, wherein the microparticles are moved toward the inlet of the microchannel a distance representing at least five times the dimension of a microparticle measured along the microchannel, and g) repeating successively the steps d) and e), wherein the steps f) and g) are periodically repeated at a predetermined frequency ranging from 0.05 Hz to 5Hz. a) providing an assay device comprising at least one microchannel having at least an inlet and at least an outlet, said assay device further comprising restricting means designed to restrict the movement toward the outlet of microparticles introduced in the microchannel while letting a fluid to flow through the restricting means toward the outlet, b) introducing a plurality of microparticles in the microchannel via the inlet, each microparticle having a shape relative to the cross-section of the microchannel that prevents overlapping of two adjacent microparticles, c) restricting the movement of said microparticles in the microchannel toward the outlet using restricting means, d) flowing a fluid sample through the microchannel and, e) performing a biological and/or chemical read-out on each microparticle, f) while the restricting means restricts movement of the microparticles in a direction toward the outlet, moving the microparticles (101, 102, 103, 104) backward toward the inlet along the microchannel and forward toward the outlet along the microchannel, the backward and forward movement of the microparticles causing spatially and random rearrangement the microparticles relative to one another along the microchannel, wherein the microparticles are moved toward the inlet of the microchannel a distance representing at least five times the dimension of a microparticle measured along the microchannel, and g) repeating successively the steps d) and e),
A method, performed by an apparatus, comprising: processing a stream of bits to provide processed bits; and transmitting the processed bits to a station, in the following also referred to as STA, over a combination of multiple resource units, in the following also referred to as RUs, assigned to the STA, wherein the processing of the stream of bits comprises: parsing the stream of bits to the combination of multiple RUs in a proportional round-robin fashion; wherein the combination of multiple RUs comprises at least one smaller RU and at least two larger RUs with each of the at least two larger RUs having more tones than the at least one smaller RU; and the processing of the stream of bits further comprises: in an event of leftover bits remaining from the parsing in the proportional round-robin fashion, distributing the leftover bits to one or more RUs but not all RUs of the combination of multiple RUs; wherein the distributing of the leftover bits to one or more RUs but not all RUs of the combination of multiple RUs comprises distributing the leftover bits to the at least two larger RUs; wherein the distributing of the leftover bits to the at least two larger RUs comprises proportionally distributing the leftover bits over last predefined number of tones on each of the at least two larger RUs; and wherein the proportionally distributing of the leftover bits over last predefined number of tones on each of the at least two larger RUs comprises proportionally distributing the leftover bits over last 44 tones on each of the at least two larger RUs. processing a stream of bits to provide processed bits; and transmitting the processed bits to a station, in the following also referred to as STA, over a combination of multiple resource units, in the following also referred to as RUs, assigned to the STA, wherein the processing of the stream of bits comprises: parsing the stream of bits to the combination of multiple RUs in a proportional round-robin fashion; wherein the combination of multiple RUs comprises at least one smaller RU and at least two larger RUs with each of the at least two larger RUs having more tones than the at least one smaller RU; and the processing of the stream of bits further comprises: in an event of leftover bits remaining from the parsing in the proportional round-robin fashion, distributing the leftover bits to one or more RUs but not all RUs of the combination of multiple RUs; wherein the distributing of the leftover bits to one or more RUs but not all RUs of the combination of multiple RUs comprises distributing the leftover bits to the at least two larger RUs; wherein the distributing of the leftover bits to the at least two larger RUs comprises proportionally distributing the leftover bits over last predefined number of tones on each of the at least two larger RUs; and wherein the proportionally distributing of the leftover bits over last predefined number of tones on each of the at least two larger RUs comprises proportionally distributing the leftover bits over last 44 tones on each of the at least two larger RUs.
A method for controlling energy expanding of a sensor network (220, 230, 240), comprising steps of: (a) acquiring an energy information, said energy information being indicative of an energy status of a node (120,130) in the network (220, 230, 240), (b) acquiring a bandwidth information, said bandwidth information being indicative of the available bandwidth status of the node (120, 130) and; (c) adjusting at least one data transmission parameter of the node (120, 130) accordingly based on the energy information and based on the bandwidth information, the data transmission parameter being for controlling retransmission if the node (120, 130) does not receive any feedback information about successful data transmission. (a) acquiring an energy information, said energy information being indicative of an energy status of a node (120,130) in the network (220, 230, 240), (b) acquiring a bandwidth information, said bandwidth information being indicative of the available bandwidth status of the node (120, 130) and; (c) adjusting at least one data transmission parameter of the node (120, 130) accordingly based on the energy information and based on the bandwidth information, the data transmission parameter being for controlling retransmission if the node (120, 130) does not receive any feedback information about successful data transmission.
A hydrothermal method for preparing a doped vanadium dioxide powder, the doped powder having a chemical composition of V 1-X M X O 2, 0<X≤ 0.5, and M is a doping element, selected from a group consisting of titanium, chromium, manganese, iron, cobalt, nickel, copper, zinc, tin, indium, antimony, gallium, germanium, lead and bismuth, and wherein the doped powder is in particle form of particles that have a aspect ratio of 1:1-10:1, and wherein the particle size is no more than 100nm in at least one dimension, and wherein the method comprising a step of a precursor treatment of titrating a quadrivalent vanadium aqueous solution with a basic reagent to obtain a precursor suspension, wherein the precursor treatment involves titrating the quadrivalent vanadium aqueous solution until the emergence of the precursor suspension.
An optoelectronic device (10; 80; 90) comprising a support, at least hydrophilic photoluminescent blocks comprising hydrophilic photoluminescent particles covering first areas of the support and hydrophobic photoluminescent blocks comprising hydrophobic photoluminescent particles covering second areas of the support, the hydrophilic photoluminescent blocks being in contact with a hydrophilic material at the level of the first areas and the hydrophobic photoluminescent blocks being in contact with a hydrophobic material at the level of the second areas.
A compound of formula in the form of any one of its stereoisomers or mixtures thereof, and wherein R represents a C 2 -C 10 group of formula COR a wherein R a is an alkyl or alkenyl group optionally comprising one or two ether functional groups or is a phenyl or benzyl group optionally substituted by one to three alkyl, alkoxyl, carboxyl, acyl, amino or nitro groups or halogen atoms.
An active energy ray radically curable inkjet printing ink comprising: i) at least 55 wt.% of water ii) from about 2 wt.% to about 20 wt.% of a radically curable di(meth)acrylate monomer being a polyethylene glycol di(meth)acrylate having 5 or more ethylene oxide groups per molecule; iii) from about 1 wt.% to about 15 wt.% of a radically curable (meth)acrylate compound being a hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl, preferably hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl; iv) from about 1 wt.% to about 5 wt.% of a photoinitiator of formula: wherein X + is Na + or Li +, preferably Na + v) from about 0.1 wt.% to about 2 wt.% of one or more co-initiator selected from the group consisting of N-[3-(dimethylamine)propyl]metacrylamide and/or poly(methylhydrosiloxane); the weight percentage being based on the total weight of the active energy ray radically curable inkjet printing ink. i) at least 55 wt.% of water ii) from about 2 wt.% to about 20 wt.% of a radically curable di(meth)acrylate monomer being a polyethylene glycol di(meth)acrylate having 5 or more ethylene oxide groups per molecule; iii) from about 1 wt.% to about 15 wt.% of a radically curable (meth)acrylate compound being a hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl, preferably hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl; iv) from about 1 wt.% to about 5 wt.% of a photoinitiator of formula: wherein X + is Na + or Li +, preferably Na + v) from about 0.1 wt.% to about 2 wt.% of one or more co-initiator selected from the group consisting of N-[3-(dimethylamine)propyl]metacrylamide and/or poly(methylhydrosiloxane);
Rack rear wall for hanging in two rack columns, comprising: a base plate having a substantially rectangular base shape and comprising two straight longitudinal edges opposite to one another, a first element formed by folding one of the two longitudinal edges of the base plate into the rearward depth direction orthogonal to the base plate and comprising a recess in width direction which extends in the longitudinal direction, and a second element formed by folding the other one of the two longitudinal edges of the base plate into the rearward depth direction orthogonal to the base plate and comprising a convexity in width direction which extends in the longitudinal direction, wherein the recess and the convexity of the first and second elements are formed so that they have the shape of a groove and a matching tongue. a base plate having a substantially rectangular base shape and comprising two straight longitudinal edges opposite to one another, a first element formed by folding one of the two longitudinal edges of the base plate into the rearward depth direction orthogonal to the base plate and comprising a recess in width direction which extends in the longitudinal direction, and a second element formed by folding the other one of the two longitudinal edges of the base plate into the rearward depth direction orthogonal to the base plate and comprising a convexity in width direction which extends in the longitudinal direction, wherein the recess and the convexity of the first and second elements are formed so that they have the shape of a groove and a matching tongue.
A compound represented by Chemical Formula 1 below: in Chemical Formula 1, X 1 is O or S; two of R 1 to R 4 are hydrogen, and the rest are Ar 1 which differ from each other; Ar 1 is each independently -L-Ar 2; L is each independently a direct bond, or substituted or unsubstituted C 6-60 arylene; and Ar 2 is each independently selected from the following: wherein R 5 is each independently hydrogen, phenyl, biphenylyl, naphthyl, or dibenzofuranyl. X 1 is O or S; two of R 1 to R 4 are hydrogen, and the rest are Ar 1 which differ from each other; Ar 1 is each independently -L-Ar 2; L is each independently a direct bond, or substituted or unsubstituted C 6-60 arylene; and Ar 2 is each independently selected from the following: wherein R 5 is each independently hydrogen, phenyl, biphenylyl, naphthyl, or dibenzofuranyl.
A line processing unit in a switch fabric system, comprising: a plurality of fabric interface controllers, FICs, and one or more fabric elements, FEs, wherein each FIC is connected to each FE through a different first connection line, the number of the first connection lines is the product of the number of the FICs and the number of the FEs, the FICs and the FEs are configured to implement packet switching between any ports of the line processing unit. a plurality of fabric interface controllers, FICs, and one or more fabric elements, FEs, wherein each FIC is connected to each FE through a different first connection line, the number of the first connection lines is the product of the number of the FICs and the number of the FEs, the FICs and the FEs are configured to implement packet switching between any ports of the line processing unit.
Measurement arrangement for a shaft which is mounted in a bearing, wherein the measurement arrangement comprises a magnetic coding (6; 8) and a receiver, and wherein the magnetic coding (6; 8) is arranged on an end surface (5; 7) of a component of the bearing, characterized in that the measuring arrangement is formed in such a way that, when a mechanical load is applied to the mounted shaft, the mechanical stresses are transmitted to that component of the bearing which is connected to the shaft and the receiver detects a change in the magnetic field of the magnetic coding (6; 8) on the component of the bearing.
Data transmitter for transmitting data of variable length, wherein the data transmitter is configured to distribute the data of variable length to a specified number of sub-data packets (142_1:142_n) and to transmit the sub-data packets (142_1:142_n); wherein the data of variable length comprises payload data; characterized in that a number of symbols of the individual sub-data packets (142_1:142_n) depends on a length of the data of variable length.