mhurhangee/ep-ind-claims huggingface dataset:
A liner wringing device for use with a flexible liner containing material therein, said wringing device comprising; a mounting plate having an opening therein; characterised by: a first roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a second roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a third roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate, and a drive mechanism (51, 52, 53, 57, 61, 62, 63, 66, 67) coupled to said first roller, said second roller, and said third roller, whereby the actuation of the drive mechanism causes the first, second and third roller to rotate thereby pulling the liner between the rollers through the mounting plate opening. a mounting plate having an opening therein; characterised by: a first roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a second roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a third roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate, and a drive mechanism (51, 52, 53, 57, 61, 62, 63, 66, 67) coupled to said first roller, said second roller, and said third roller, whereby the actuation of the drive mechanism causes the first, second and third roller to rotate thereby pulling the liner between the rollers through the mounting plate opening. a first roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a second roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate; a third roller rotatably coupled to said mounting plate directly adjacent said opening of said mounting plate, and a drive mechanism (51, 52, 53, 57, 61, 62, 63, 66, 67) coupled to said first roller, said second roller, and said third roller, whereby the actuation of the drive mechanism causes the first, second and third roller to rotate thereby pulling the liner between the rollers through the mounting plate opening.
A method of making an article having a substance deposited thereon in a predetermined pattern, said method comprising: providing a non-contacting substance deposition device; providing at least one three-dimensional article which has a surface; providing a conveyor to transport the article past said substance deposition device; wherein the method further comprises: creating a re-circulating relative motion between the article and the device, such that the article passes by the device at least two times; and during the relative motion, depositing a substance onto at least a portion of the surface of the article by using the device, wherein in each pass, the deposition device deposits only a portion of the total predetermined pattern to be formed, and the article is passed by the device at least twice to form the predetermined pattern; and wherein said substance comprises droplets of ink, and said droplets of ink are deposited in a matrix on said article that is greater than 1,200 drops per inch (472 drops per cm) in at least one direction, or ranges from 1,080 to 1,440 drops per inch (425 to 567 drops per cm) in at least one direction; and wherein the three-dimensional article is selected from the group consisting of hollow plastic containers; caps, for example bottle caps; closures; bottles; bottle preforms; boxes; cans; cartons; containers; laundry dosing balls; razors; razor blade heads; razor blade handles; sprayer triggers; tubs; tubes, for example tampon tubes; deodorant stick containers; and primary packages for consumer products, including disposable consumer products. providing a non-contacting substance deposition device; providing at least one three-dimensional article which has a surface; providing a conveyor to transport the article past said substance deposition device; creating a re-circulating relative motion between the article and the device, such that the article passes by the device at least two times; and during the relative motion, depositing a substance onto at least a portion of the surface of the article by using the device, wherein in each pass, the deposition device deposits only a portion of the total predetermined pattern to be formed, and the article is passed by the device at least twice to form the predetermined pattern; and wherein said substance comprises droplets of ink, and said droplets of ink are deposited in a matrix on said article that is greater than 1,200 drops per inch (472 drops per cm) in at least one direction, or ranges from 1,080 to 1,440 drops per inch (425 to 567 drops per cm) in at least one direction; and wherein the three-dimensional article is selected from the group consisting of hollow plastic containers; caps, for example bottle caps; closures; bottles; bottle preforms; boxes; cans; cartons; containers; laundry dosing balls; razors; razor blade heads; razor blade handles; sprayer triggers; tubs; tubes, for example tampon tubes; deodorant stick containers; and primary packages for consumer products, including disposable consumer products.
A laminated ceramic electronic component comprising an inner conductor (2A - 4A) provided inside of a ceramic laminated product comprising a plurality of ceramic layers (10, 11, 12), an outer electrode (31, 32) provided on the surface of the ceramic laminated product, and a leading conductor (5A, 6A) connecting the inner conductor (2A - 4A) to the outer electrode (31, 32), wherein the leading conductor (5A - 6A) includes a plurality of lead conductor pattern layers (5, 6) that overlap and are in contact with each other, and the inner conductor (2A - 4A) includes a plurality of inner conductor pattern layers (2, 4) that overlap and are in contact with each other; characterized in that the number of leading conductor pattern layers (5, 6) of the plurality of leading conductor pattern layers (5, 6) provided on a first ceramic layer of the plurality of ceramic layers (10, 11, 12) is less than the number of inner conductor-pattern layers (2, 4) of the plurality of inner conductor pattern layers (2, 4) provided on the first ceramic layer of the plurality of ceramic layers (10, 11, 12), whereby the thickness of the leading conductor (5A, 6A) is less than the thickness of the inner conductor (2A - 4A).
A unitary radome layer assembly, comprising: a first nanocomposite formulation; a second nanocomposite formulation, the first and second nanocomposite formulations being provided together in a unitary radome layer with respective distribution gradients; the unitary radome layer forming a nose cone comprising a tip, wherein the unitary radome layer comprises: a forward portion that is proximate to the tip; an aft portion that is remote from the tip; each of the forward portion and the aft portion comprises an inner portion that is proximate to an interior surface of the nose cone; and each of the forward portion and the aft portion comprises an outer portion that is proximate to an outer surface of the nose cone, wherein most of the second nanocomposite formulation is located along the outer portion of the forward portion, and wherein most of the first nanocomposite formulation is located along the inner portion of the aft portion. a first nanocomposite formulation; a second nanocomposite formulation, the first and second nanocomposite formulations being provided together in a unitary radome layer with respective distribution gradients; the unitary radome layer forming a nose cone comprising a tip, wherein the unitary radome layer comprises: a forward portion that is proximate to the tip; an aft portion that is remote from the tip; each of the forward portion and the aft portion comprises an inner portion that is proximate to an interior surface of the nose cone; and each of the forward portion and the aft portion comprises an outer portion that is proximate to an outer surface of the nose cone, wherein most of the second nanocomposite formulation is located along the outer portion of the forward portion, and wherein most of the first nanocomposite formulation is located along the inner portion of the aft portion. a forward portion that is proximate to the tip; an aft portion that is remote from the tip; each of the forward portion and the aft portion comprises an inner portion that is proximate to an interior surface of the nose cone; and each of the forward portion and the aft portion comprises an outer portion that is proximate to an outer surface of the nose cone, wherein most of the second nanocomposite formulation is located along the outer portion of the forward portion, and wherein most of the first nanocomposite formulation is located along the inner portion of the aft portion.
Methanation reactor for reacting dihydrogen with at least one carbon-based compound and producing methane, comprising: - a hollow body configured to receive a fluidized bed and comprising an inlet for the carbon-based compound; - an outlet for methane and water produced by a methanation reaction; - a heat exchanger extending at least partially through the hollow body and at least partially submerged in the fluidized bed; - a means for cooling the superheated vapor: - configured to saturate the superheated vapor - comprising a tank and an inlet of water to be injected in the tank, configured to mix the water and the superheated vapor entering the means for cooling and - the cooling means being positioned downstream of the part of the heat exchanger that extends through the hollow body, - a means for introducing superheated water vapor into the heat exchanger. - a hollow body configured to receive a fluidized bed and comprising an inlet for the carbon-based compound; - an outlet for methane and water produced by a methanation reaction; - a heat exchanger extending at least partially through the hollow body and at least partially submerged in the fluidized bed; - a means for cooling the superheated vapor: - configured to saturate the superheated vapor - comprising a tank and an inlet of water to be injected in the tank, configured to mix the water and the superheated vapor entering the means for cooling and - the cooling means being positioned downstream of the part of the heat exchanger that extends through the hollow body, - configured to saturate the superheated vapor - comprising a tank and an inlet of water to be injected in the tank, configured to mix the water and the superheated vapor entering the means for cooling and - the cooling means being positioned downstream of the part of the heat exchanger that extends through the hollow body, - a means for introducing superheated water vapor into the heat exchanger.
A projector comprising: a light source (1, 101) that emits white light; spatial optical modulating means for converting emitted light from said light source (1, 101) into modulated light that expresses an image; a rotary color filter that has a rotary region where filter segments each for transmitting light of plural chromatic colors are arranged, and separate emitted light from said light source (1, 101) into said different chromatic colors by rotating said rotary region interposed between said light source (1, 101) and said spatial optical modulating means; and light source driving means (11, 111) having a function for changing the quantity of emitted light from said light source (1, 101), characterized by comprising: controlling means for controlling said light source driving means (11, 111) so as either to increase the quantity of emitted light from said light source (1, 101) during a period in which light from said light source (1, 101) is transmitted through one filter segment, or to increase a length of a period in which said light source transmits light through said one filter segment, wherein a spot size of the same angle is set between two adjacent filter segments, wherein a portion other than the spot size in said rotary colour filter is a range which is available for transmitting the emitted light from said light source (1, 101), wherein the quantity of said emitted light from said light source (1, 101) can be increased during a period corresponding to said portion other than the spot size. controlling means for controlling said light source driving means (11, 111) so as either to increase the quantity of emitted light from said light source (1, 101) during a period in which light from said light source (1, 101) is transmitted through one filter segment, or to increase a length of a period in which said light source transmits light through said one filter segment, wherein a spot size of the same angle is set between two adjacent filter segments, wherein a portion other than the spot size in said rotary colour filter is a range which is available for transmitting the emitted light from said light source (1, 101), wherein the quantity of said emitted light from said light source (1, 101) can be increased during a period corresponding to said portion other than the spot size.
A resist patterning process with a minimum line width or a minimum space width being 65 nanometers or less on a processing substrate, comprising (i) coating a chemically-amplified positive resist composition containing a base polymer on a processing substrate, (ii) removing an excess solvent component remained in the coated film by heating to obtain a resist film, (iii) pattern-exposing a high energy beam, and (iv) developing by using a developer, wherein the base polymer is a polymer comprising at least one or more monomer unit represented by the following general formula wherein at least one of the monomer unit always contains a unit with t being one or more: wherein R 1 represents a hydrogen atom or a methyl group; and R 2 represents a hydrocarbon, or an alkoxy hydrocarbon group having 1 to 6 carbon atoms, wherein t represents an integer of 0 to 2; and s represents an integer of 0 to 4, and 0≤s+t≤5; a phenolic hydroxyl group may be protected by an acid labile protecting group when t is one or two, and one or more monomer unit represented by the following general formula; wherein R 3 represents any of a hydroxyl group, a hydrocarbon, or an alkoxy hydrocarbon group having 1 to 6 carbon atoms, wherein u represents an integer of 0 to 4 and/or one or more monomer unit represented by the following general formula; wherein R 4 represents a hydroxyl group, a hydrocarbon, or an alkoxy hydrocarbon group having 1 to 6 carbon atoms wherein v represents an integer of 0 to 4, wherein the phenolic hydroxyl group in the monomer unit represented by the formula is partly protected by the acid labile protecting group, wherein the sum of the monomers represented by the formulae to relative to total monomer units of the polymer is 95 mol % or more, the amount of monomers with t being one or more is 70 mol % or more relative to total monomer units of the formula when two or more monomers represented by the formula are contained, a sum of monomer units represented by the formulae and relative to total monomer units of the polymer is 5 to 30 mol %, wherein a weight-average molecular weight of the polymer is 4,000 to 7,000.
Use of a concentration of from 0.5 to 25 vol% of a C1-C5 hydrocarbyl valerate ester composition in a liquid fuel composition comprising a major portion of a base fuel suitable for use in an internal combustion engine, to provide improved compatibility with elastomeric materials in comparison with equivalent liquid fuel compositions comprising an equivalent concentration of an ethyl levulinate ester composition instead of the C1-C5 hydrocarbyl valerate ester composition, wherein the C1-C5 hydrocarbyl valerate ester composition is selected from methyl valerate, ethyl valerate, propyl valerate, and mixtures thereof.
A circuit comprising: a second power supply coupled to a second power supply rail, the second power supply configured to: provide a transient second current to the second power supply rail in response to a loading event on the second power supply rail; and generate a feedback signal in response to the loading event; a first power supply coupled to the second power supply and configured to: receive the feedback signal; and provide a first current and a first voltage to a first power supply rail in response to the feedback signal to meet a current demand of a load in response to the loading event; and a first circuit coupled to the first power supply rail, the first circuit configured to: receive the first current and the first voltage from the first power supply; and provide a second voltage on the second power supply rail based on the received first current and first voltage. a second power supply coupled to a second power supply rail, the second power supply configured to: provide a transient second current to the second power supply rail in response to a loading event on the second power supply rail; and generate a feedback signal in response to the loading event; provide a transient second current to the second power supply rail in response to a loading event on the second power supply rail; and generate a feedback signal in response to the loading event; a first power supply coupled to the second power supply and configured to: receive the feedback signal; and provide a first current and a first voltage to a first power supply rail in response to the feedback signal to meet a current demand of a load in response to the loading event; and receive the feedback signal; and provide a first current and a first voltage to a first power supply rail in response to the feedback signal to meet a current demand of a load in response to the loading event; and a first circuit coupled to the first power supply rail, the first circuit configured to: receive the first current and the first voltage from the first power supply; and provide a second voltage on the second power supply rail based on the received first current and first voltage. receive the first current and the first voltage from the first power supply; and provide a second voltage on the second power supply rail based on the received first current and first voltage.
Electrical component, having a plurality of partial bodies, a base on which the partial bodies are arranged, and two connection contacts (4, 5) for electrically connecting the partial bodies to a carrier, wherein the connection contacts (4, 5) are arranged on opposite sides of the partial bodies, characterized in that the component can be separated into smaller components (22, 23) by a cut along a plane between two of the partial bodies in such a way that both the base and the connection contacts (4, 5) are divided, wherein each of the smaller components (22, 23) has at least one partial body which is arranged on a base and is connected to a connection contact (4, 5).
Drum arrangement of a machine of the tobacco-processing industry, in particular a drum arrangement of a filter attaching machine, for the transverse axial conveying of rod-shaped articles (50.1, 50.2) of the tobacco processing industry, in particular filter cigarettes, having a rotatable conveying drum for the rod-shaped articles (50.1, 50.2), wherein, in circumferential direction, the conveying drum has two adjacently arranged rows of successively arranged receiving troughs (38.1, 38.2), each of which is for one row of rod-shaped articles (50.1, 50.2), wherein the conveying drum is set to convey the rod-shaped articles (50.1, 50.2), which are accommodated in the receiving troughs (38.1, 38.2) in two rows next to one another and in each case arranged transversely axially one behind one another, in transverse axial direction as said conveying drum rotates, wherein in each case one, preferably stationary, measuring apparatus (60, 60.1, 60.2) having a through channel (62, 62.1, 62.2), which is open on one side, for sections of the rod-shaped articles (50.1, 50.2) is provided for each row of receiving troughs (38.1, 38.2) and, when passing through the one-sidedly open through channels (62, 62.1, 62.2) of the measuring apparatuses (60, 60.1, 60.2), the sections of the rod-shaped articles (50.1, 50.2) which are present in the through channel (62, 62.1, 62.2) and preferably protrude laterally from the respective receiving troughs (38.1, 38.2) can respectively be subjected to or in each case are subjected to electromagnetic waves of a measuring field of the measuring apparatus (60, 60.1, 60.2) in the through channel (62, 62.1, 62.2) of each measuring apparatus (60, 60.1, 60.2), wherein each measuring apparatus (60, 60.1, 60.2) for the two rows of rod-shaped articles (50.1, 50.2) in each case is set to subject sections of the rod-shaped articles (50.1, 50.2) to be tested to electromagnetic waves in the range from 300 MHz (300 x 10 6 Hz) to 30 EHz (30 x 10 18 Hz) when they pass through the through channel (62, 62.1, 62.2) of each measuring apparatus (60, 60.1, 60.2), wherein the measuring apparatuses (60, 60.1, 60.2) for the sections of the rod-shaped articles (50.1, 50.2) of the two rows are disposed between the two rows of receiving troughs (38.1, 38.2) for the rod-shaped articles, and wherein the conveying drum has an outer drum body, wherein the receiving troughs (38.1, 38.2) of the two rows are offset in radial direction to the outside with respect to the circumferential surface of the drum body of the conveying drum.
A sliding bearing element, in particular a radial sliding bearing element, comprising in this sequence a support element, which in particular forms a support layer, at least one running layer, at least one additional layer, and possible at least one bearing metal layer between the support element and the at least one running layer, wherein the at least one running layer is formed by at least one first tin-based alloy and the at least one additional layer is formed by at least one additional tin-based alloy, wherein the first tin-based alloy and the additional tin-based alloy contain at least one element of a group comprising Cu, Ni, Ag, Sb, As, Pb, Bi, Te, Tl and/or non-metal particles, and the at least one first and the at least one additional tin-based alloy contain beta-tin grains, wherein the at least one first tin-based alloy has a strength index FI of at least 5 and at most 25 and the at least one additional tin-based alloy has a strength index FI of at least 0.3 and at most 3, the strength index of the running layer is at least five times the strength index of the at least one additional layer arranged directly on the running layer, and the strength index FI is defined by the equation, FI = 100 ∗ ωC + 50 ∗ ωS + 2 ∗ 100 ∗ ωB 2, in which C represents at least one of the elements Cu, Ni, Ag; S represents Sb and/or non-metal particles; B represents at least one of the elements Pb, Bi, Te, Tl; and ω represents the total content of each of the tin-based alloy components assigned to the letters C, S, and B.
A drive machine (9, 27) for an elevator system comprising a drive motor, a first machine pulley and a second machine pulley, arranged on a common rotational axis, wherein at least one of the first machine pulley or the second machine pulley is provided with a driving surface to drive a support means and said machine pulley (18, 20), which is provided for driving the support means, is connected to the drive motor in a frictionally locked manner, characterized in that the other of the first or second machine pulley (20, 18) is also connected to the drive motor in a frictionally locked manner, wherein when driving the machine pulleys (20, 18) by means of the drive motor, the circumferential speeds of both machine pulleys (20, 18) are different, or the other of the first or second machine pulley (20, 18) is arranged in a freely rotatable manner on the common rotational axis, so that a circumferential speed of the freely rotating machine pulley (20, 18) may be different from the circumferential speed of the machine pulley (18, 20) which is connected to the drive motor in a frictionally locked manner.