mhurhangee/ep-ind-claims huggingface dataset:
Linear actuator comprising an actuator housing, a driven element movable at a front end of the linear actuator and a mounting at a rear end of the linear actuator, wherein the mounting comprises two arms (9,10) and an accommodation space between the two arms (9,10) having an opening, characterized in that at least one arm (9,10) is provided with a lever (12,13) which is rotatable about an axis between an open position and a closed position, and where the lever (12,13) comprises an end portion (14,16), wherein in the closed position, an end portion (14,16) of the lever (12,13) at least partly closes the opening and in the open position makes the opening accessible, wherein the lever (12,13) is a two-arm lever having the end portion (14,16) at a first end and an actuating portion (15,17) at a second end, characterized in that in the open position, the actuating portion (15,17) protrudes into the accommodation space.
A method for genotyping, with a set of markers, a genome region in individuals of a first population, said method comprising the steps of: a) splitting said first population into a given number "X" of first population subgroups, containing approximately the same number of individuals b) splitting said set of markers into said given number "X" of markers subsets, containing approximately the same number of markers c) Bijectively linking each marker subset to a population subgroup d) Preparing, in the population subgroups, the loci of the individuals of said population subgroup, wherein said prepared loci correspond to the markers of the markers subset linked to said population subgroup, thereby obtaining DNA fractions enriched in said loci e) Mixing the enriched DNA fraction of a particular individual of a population subgroup with the enriched DNA fraction of other individuals of other population subgroups so as to obtain a multiplexed pool of enriched DNA fractions, f) Revealing, for said multiplexed pool of enriched DNA fractions, the alleles for each locus present in said multiplexed pool of enriched DNA fractions g) Allocating each revealed allele to the individual from which the corresponding locus was obtained, h) Thereby obtaining individuals for which a genome region has been genotyped with subsets of said set of markers. a) splitting said first population into a given number "X" of first population subgroups, containing approximately the same number of individuals b) splitting said set of markers into said given number "X" of markers subsets, containing approximately the same number of markers c) Bijectively linking each marker subset to a population subgroup d) Preparing, in the population subgroups, the loci of the individuals of said population subgroup, wherein said prepared loci correspond to the markers of the markers subset linked to said population subgroup, thereby obtaining DNA fractions enriched in said loci e) Mixing the enriched DNA fraction of a particular individual of a population subgroup with the enriched DNA fraction of other individuals of other population subgroups so as to obtain a multiplexed pool of enriched DNA fractions, f) Revealing, for said multiplexed pool of enriched DNA fractions, the alleles for each locus present in said multiplexed pool of enriched DNA fractions g) Allocating each revealed allele to the individual from which the corresponding locus was obtained, h) Thereby obtaining individuals for which a genome region has been genotyped with subsets of said set of markers.
An electric pump comprising: an impeller; a rotor connected to the impeller; a housing accommodating the rotor; divided iron cores surrounding the housing from an outside of the housing; divided coil bobbins respectively attached to the divided iron cores; divided coils respectively wound around the divided coil bobbins; wherein the housing includes a bottom wall portion directly or indirectly holding a shaft portion in a standing manner, the shaft portion supports the rotor for rotation, the bottom wall portion overlaps at least a part of the divided coils in an orthogonal direction orthogonal to an axial direction of the rotor; characterised by a bus bar unit including bus bars (81n, 81u, 81v, 81w), wherein: the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion; and the bus bars (81n, 81u, 81v, 81w) overlap the divided coils in the orthogonal direction. an impeller; a rotor connected to the impeller; a housing accommodating the rotor; divided iron cores surrounding the housing from an outside of the housing; divided coil bobbins respectively attached to the divided iron cores; divided coils respectively wound around the divided coil bobbins; wherein the housing includes a bottom wall portion directly or indirectly holding a shaft portion in a standing manner, the shaft portion supports the rotor for rotation, the bottom wall portion overlaps at least a part of the divided coils in an orthogonal direction orthogonal to an axial direction of the rotor; characterised by a bus bar unit including bus bars (81n, 81u, 81v, 81w), wherein: the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion; and the bus bars (81n, 81u, 81v, 81w) overlap the divided coils in the orthogonal direction. the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion; and the bus bars (81n, 81u, 81v, 81w) overlap the divided coils in the orthogonal direction.
A pump having a cutting wheel and a pre-cutter for cutting chippings that are contained in the medium pumped by the pump, the pre-cutter being driven by a shaft portion that projects axially from the cutting wheel and having a plurality of wings that extend radially from the shaft portion and have, when seen in a projection onto the plane orthogonal to the axis of the shaft portion, a curved shape such that their edge forming the leading edge in the direction of rotation is curved convexly and permits the chippings to slide radially outwardly along that edge, the pre-cutter being surrounded by a crest of anvil blocks at which the free ends of the wings move past in a little distance when the pre-cutter rotates, characterized in that each wing has at its free end an outwardly angled catch that obstructs the movement of chippings that slide along the convexly curved edge of the wing.
A centrifugal separator for cleaning gas containing contaminants, said centrifugal separator comprising a stationary casing, enclosing a separation space through which a gas flow is permitted, a gas inlet extending through the stationary casing and permitting supply of the gas to be cleaned, a rotating member comprising a plurality of separation members arranged in said separation space and being arranged to rotate around an axis of rotation, a gas outlet tube arranged through the stationary casing and configured to permit discharge of cleaned gas out from the stationary casing, a drainage outlet arranged in the stationary casing and configured to permit discharge of liquid contaminants that have been separated from the gas out from the stationary casing; a drive member for rotating the rotating member; wherein the centrifugal separator further comprises a stationary insert arranged in the stationary casing and configured for segregating cleaned gas and separated contaminants prior to the cleaned gas and separated contaminants exiting said stationary casing, and characterised in that said gas outlet tube and said stationary insert is formed as a single unit. a stationary casing, enclosing a separation space through which a gas flow is permitted, a gas inlet extending through the stationary casing and permitting supply of the gas to be cleaned, a rotating member comprising a plurality of separation members arranged in said separation space and being arranged to rotate around an axis of rotation, a gas outlet tube arranged through the stationary casing and configured to permit discharge of cleaned gas out from the stationary casing, a drainage outlet arranged in the stationary casing and configured to permit discharge of liquid contaminants that have been separated from the gas out from the stationary casing; a drive member for rotating the rotating member; wherein the centrifugal separator further comprises a stationary insert arranged in the stationary casing and configured for segregating cleaned gas and separated contaminants prior to the cleaned gas and separated contaminants exiting said stationary casing, and characterised in that said gas outlet tube and said stationary insert is formed as a single unit.
A cellulose nanofiber obtainable by a method comprising the steps of: oxidizing a cellulosic material with an oxidizing agent in the presence of: N-oxyl compound(s), and compound(s) selected from the group consisting of bromide, iodide and mixtures thereof to prepare an oxidized cellulose; and finely grinding the oxidized cellulose in a wet condition to convert the oxidized cellulose into nanofibers, wherein the step of finely grinding comprises defibrating the oxidized cellulose with an ultrahigh pressure homogenizer under a pressure of not less than 100 MPa, and whose B-type viscosity (60 rpm, 20oC) as an aqueous solution at a concentration of 2% (w/v) is from 500 to 7000 mPa.s. N-oxyl compound(s), and compound(s) selected from the group consisting of bromide, iodide and mixtures thereof to prepare an oxidized cellulose; and
A gradient filtration media, said filtration media comprising: (a) a filtration media substrate comprising a first influent surface and a first effluent surface; (b) a first nanofiber layer comprising at least 25 weight percent of a first nanofiber, wherein said first nanofiber layer comprises a second influent surface and a second effluent surface, wherein said first nanofiber layer at least partially coats said first influent surface of said filtration media substrate, wherein said first nanofiber comprises an average diameter of 50 to 500 nm; and (c) a second nanofiber layer comprising at least 25 weight percent of a second nanofiber, wherein said second nanofiber layer at least partially coats said second influent surface of said first nanofiber wherein said second nanofiber comprises an average diameter of 500 to 900 nm and wherein said second nanofiber comprises an average diameter that is greater than the average diameter of said first nanofiber so that the combined presence of the first nanofiber layer and the second nanofiber layer produce a gradient density pore structure in the gradient filtration media. (a) a filtration media substrate comprising a first influent surface and a first effluent surface; (b) a first nanofiber layer comprising at least 25 weight percent of a first nanofiber, wherein said first nanofiber layer comprises a second influent surface and a second effluent surface, wherein said first nanofiber layer at least partially coats said first influent surface of said filtration media substrate, wherein said first nanofiber comprises an average diameter of 50 to 500 nm; and (c) a second nanofiber layer comprising at least 25 weight percent of a second nanofiber, wherein said second nanofiber layer at least partially coats said second influent surface of said first nanofiber wherein said second nanofiber comprises an average diameter of 500 to 900 nm and wherein said second nanofiber comprises an average diameter that is greater than the average diameter of said first nanofiber so that the combined presence of the first nanofiber layer and the second nanofiber layer produce a gradient density pore structure in the gradient filtration media.
An apparatus, comprising means for: generating a coordination request for information on resources for use for direct inter user equipment transmissions, said coordination request including an indication of a preference for resources for receiving a coordination response; monitoring for coordination requests made by at least one other user equipment; generating said resource preference indication in dependence upon at least one preference indication from at least one of said monitored coordination requests. generating a coordination request for information on resources for use for direct inter user equipment transmissions, said coordination request including an indication of a preference for resources for receiving a coordination response; monitoring for coordination requests made by at least one other user equipment; generating said resource preference indication in dependence upon at least one preference indication from at least one of said monitored coordination requests.
A method performed by an access node that provides network access for one or more client devices, the method comprising: receiving, at the access node, a plurality of media content items from the one or more client devices; generating processed media content at the access node, wherein the processed media content is based at least in part on a subset of the plurality of media content items, the subset selected based at least in part on a backhaul bandwidth availability of the access node; and transmitting the processed media content to a server. receiving, at the access node, a plurality of media content items from the one or more client devices; generating processed media content at the access node, wherein the processed media content is based at least in part on a subset of the plurality of media content items, the subset selected based at least in part on a backhaul bandwidth availability of the access node; and transmitting the processed media content to a server.
An electroplating tool limiting, or even preventing a chemical metallization of the plastisol that covers it during an operation of metallization by electroplating of plastic parts, the plastisol comprising at least a resin and a plasticizer mixture, characterized in that the plastisol contains at least a bismuth oxide and an element from group V or group VI of the periodic table of elements (mixed bismuth oxide).
A capacity judgment module, used for judging a capacity of a battery installed in an electronic device, the capacity judgment module comprising: a database, used for storing a voltage-capacity comparison curve, wherein the voltage-capacity comparison curve indicates a voltage-capacity relationship from a maximum supply voltage to a minimum supply voltage of the battery; a voltage detection module, used for detecting a real-time voltage value of the electronic device and for obtaining a voltage value interval between a maximum use voltage value and a minimum use voltage value of the electronic device so as to divide the voltage value interval into a plurality of levels; and a processing module, electrically connected to the database and the voltage detection module, used for querying the voltage-capacity comparison curve to actually modify the plurality of levels of the voltage value interval of the electronic device and a battery capacity ratio according to the voltage-capacity comparison curve, thereby creating a new voltage-capacity comparison table for being stored in the database. a database, used for storing a voltage-capacity comparison curve, wherein the voltage-capacity comparison curve indicates a voltage-capacity relationship from a maximum supply voltage to a minimum supply voltage of the battery; a voltage detection module, used for detecting a real-time voltage value of the electronic device and for obtaining a voltage value interval between a maximum use voltage value and a minimum use voltage value of the electronic device so as to divide the voltage value interval into a plurality of levels; and a processing module, electrically connected to the database and the voltage detection module, used for querying the voltage-capacity comparison curve to actually modify the plurality of levels of the voltage value interval of the electronic device and a battery capacity ratio according to the voltage-capacity comparison curve, thereby creating a new voltage-capacity comparison table for being stored in the database.
A method for spot cleaning using a mobile cleaning robot, the method comprising: showing a map of an environment on a touch screen display of a mobile computing device; receiving, at the mobile computing device, a drawing of a path to a spot to be cleaned on the map; and sending instructions to the mobile cleaning robot to travel along the path, receiving, at the mobile cleaning robot, instructions to the mobile cleaning robot to travel along the path to the spot to be cleaned; following the path to reach the spot to be cleaned; and carrying out a spot cleaning operation in which the vacuum cleaning robot moves in a predefined pattern within a localized area including the spot. showing a map of an environment on a touch screen display of a mobile computing device; receiving, at the mobile computing device, a drawing of a path to a spot to be cleaned on the map; and sending instructions to the mobile cleaning robot to travel along the path, receiving, at the mobile cleaning robot, instructions to the mobile cleaning robot to travel along the path to the spot to be cleaned; following the path to reach the spot to be cleaned; and carrying out a spot cleaning operation in which the vacuum cleaning robot moves in a predefined pattern within a localized area including the spot.
A method of determining real time location of a vehicle along a route, the method comprising: measuring GPS information associated with the vehicle; measuring speed information associated with the vehicle; and estimating real time distance of the vehicle along the route solely in response to the GPS information and the vehicle speed information, characterised by estimating real time distance of the vehicle along the route comprising processing the GPS information and the vehicle speed information via a Kalman filter configured to integrate the vehicle measured speed information in response to speed bias data generated in response to the GPS information, and wherein processing the GPS information and the vehicle speed information via the Kalman filter is further configured to intermittently reset a real time distance estimator and provide a corrected reference value of the speed bias data based on a critical milepost comprising an entry in a database. measuring GPS information associated with the vehicle; measuring speed information associated with the vehicle; and estimating real time distance of the vehicle along the route solely in response to the GPS information and the vehicle speed information, characterised by estimating real time distance of the vehicle along the route comprising processing the GPS information and the vehicle speed information via a Kalman filter configured to integrate the vehicle measured speed information in response to speed bias data generated in response to the GPS information, and wherein processing the GPS information and the vehicle speed information via the Kalman filter is further configured to intermittently reset a real time distance estimator and provide a corrected reference value of the speed bias data based on a critical milepost comprising an entry in a database.
A controller area network, CAN, node comprising a unit, a CAN controller and a CAN transceiver, the unit configured to: detect a transmit signal edge on a transmit signal for the CAN transceiver; detect a corresponding receive signal edge on a receive signal for the CAN controller; and detect a CAN bus collision based on a plurality of propagation delays (1143b, 1145b) between respective signal edges (1135b, 1136b) on the transmit signal and corresponding signal edges (1137b, 1139b) on the receive signal, in which the transmit signal edge is a first transmit signal edge and the corresponding receive signal edge is a first receive signal edge, and characterized in that the unit is further configured to: detect a second transmit signal edge; detect a second receive signal edge that corresponds to the second transmit signal edge; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay. detect a transmit signal edge on a transmit signal for the CAN transceiver; detect a corresponding receive signal edge on a receive signal for the CAN controller; and detect a CAN bus collision based on a plurality of propagation delays (1143b, 1145b) between respective signal edges (1135b, 1136b) on the transmit signal and corresponding signal edges (1137b, 1139b) on the receive signal, in which the transmit signal edge is a first transmit signal edge and the corresponding receive signal edge is a first receive signal edge, and characterized in that the unit is further configured to: detect a second transmit signal edge; detect a second receive signal edge that corresponds to the second transmit signal edge; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay. detect a second transmit signal edge; detect a second receive signal edge that corresponds to the second transmit signal edge; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay.
Process for eliminating the emissions of gases released by one or more compounds chosen from organic compounds, halogen compounds, boron compounds and phosphorus compounds present in a porous material in the form of particles comprising a porous inorganic support and at least 0.1% by weight of one or more of said compounds, characterized in that the particles are placed in motion within a hot gas stream traversing them, and a liquid composition containing one or more film-forming polymer(s) is sprayed over the moving particles by means of a twin-fluid atomization nozzle, in which the liquid composition is mixed with a pressurized gas, with a relative atomization pressure, corresponding to the difference in pressure between the pressure of the gas inside the nozzle and atmospheric pressure, of greater than or equal to 0.7 x 10 5 Pa, until a protective layer containing the film-forming polymer(s) and exhibiting a mean thickness ranging from 0.5 to 20 μm is obtained on the surface of the said particles.