mhurhangee/ep-ind-claims huggingface dataset:
Use of a feed composition or feed additive comprising at least one para nitroaniline derivative or a salt thereof as defined by formula, wherein R1 and R2 independently of each other represent H, -CH 3, or -CH 2 R3, and wherein R3 is a saturated or unsaturated, linear, branched or cyclic C 1 -C 8 -hydrocarbon group, optionally substituted with 1 to 3 groups selected from -OH, - NH 2, -COOH, and wherein one or two of the carbon atoms in the C 1 -C 8 hydrocarbon is optionally substituted by a nitrogen or an oxygen atom, and at least one organic molecule substituted at any position with at least one nitrooxy group, or a salt thereof as defined by formula, wherein n is comprised between 0 and 6 and, wherein, if n ≠ 0, the carbon chain is a linear, a cyclic, or branched aliphatic carbon chain which may be non-substituted or substituted with up to 3 hydroxyl-, alkoxy-, amino-, alkylamino-, dialkylamino- or nitrooxy groups, or an alkenyl, or an alkynyl carbon chain mono- or polyunsaturated and in any isomeric form, R4 is independently, hydrogen or a saturated straight, cyclic or branched chain of an alkyl or alkenyl group containing 1 to 6 carbon atoms, X is hydrogen, R5, -OR5, -OCOR5, -ONO2, -COOR5, -CONR5R6, R5 and R6 are independently, hydrogen, C1-C12 straight, branched or cyclic alkyl chain, non-substituted or substituted with up to 3 hydroxyl-, alkoxy-, amino-, alkylamino-, dialkylamino- or nitrooxy groups, alkenyl, or alkynyl carbon chain which may be mono or polyunsaturated, and in any isomeric form. for reducing the formation of methane emanating from the digestive activities of ruminants and/or for improving ruminant performance and wherein the amount of compound(s) of formula in the feed composition is from 0.1 mg to 0.2 g per kg feed, and the amount of compound(s) of formula in the feed composition is from 1 mg to 10 g per kg feed. n is comprised between 0 and 6 and, wherein, if n ≠ 0, the carbon chain is a linear, a cyclic, or branched aliphatic carbon chain which may be non-substituted or substituted with up to 3 hydroxyl-, alkoxy-, amino-, alkylamino-, dialkylamino- or nitrooxy groups, or an alkenyl, or an alkynyl carbon chain mono- or polyunsaturated and in any isomeric form, R4 is independently, hydrogen or a saturated straight, cyclic or branched chain of an alkyl or alkenyl group containing 1 to 6 carbon atoms, X is hydrogen, R5, -OR5, -OCOR5, -ONO2, -COOR5, -CONR5R6, R5 and R6 are independently, hydrogen, C1-C12 straight, branched or cyclic alkyl chain, non-substituted or substituted with up to 3 hydroxyl-, alkoxy-, amino-, alkylamino-, dialkylamino- or nitrooxy groups, alkenyl, or alkynyl carbon chain which may be mono or polyunsaturated, and in any isomeric form.
An airbag module comprising an airbag the wall of which in a first state of the airbag includes at least one fold, and comprising a holding means for fixing the fold, wherein the holding means is actively detachable in response to a signal, thereby the airbag adopting a second state in which the fold is opened, wherein the holding means includes a mounting strap for retaining the fold in the first state of the airbag, characterized in that one end of the mounting strap is fixed by an explosive stud at an outside of the airbag module and another end of the mounting strap is connected to the wall of the airbag.
Wall box having a ventilation tube, which is insertable into a wall opening, that extends from the inner side to the outer side of a wall, and with a covering device, which is displaceable outwardly through the ventilation tube and can be positioned in front of the ventilation tube, characterized in that the ventilation tube has a guide strip and that a guide carriage is provided, that comprises a guide member, which is held displaceably by the guide strip, and a holding member, which is connected to the covering device by a pivot element.
A process for manufacturing a fixing device for fixing to concrete and like substrates, the process comprising: a) selecting a heat treatable steel for forming the fixing; b) rolling the steel to form a fixing product; c) applying a nitriding process so as to penetrate the surface of the steel, whereby to create a surface skin; and, d) applying a Sheradizing diffusion process so as to increase corrosion resistance. a) selecting a heat treatable steel for forming the fixing; b) rolling the steel to form a fixing product; c) applying a nitriding process so as to penetrate the surface of the steel, whereby to create a surface skin; and, d) applying a Sheradizing diffusion process so as to increase corrosion resistance.
Thermal battery comprising a wall forming an enclosure comprising within it tubes containing a phase-change material, said tubes being arranged substantially parallel to one another so as to form a bundle of tubes, characterized in that at least at one end of the bundle of tubes all of the ends of the tubes are embedded in an encasing material.
An implement for dispensing granular agricultural product, said implement comprising: a bin for holding the agricultural product; a plurality of metering devices secured to a bottom of said bin and configured to dispense agricultural product from the bin into or onto the ground, wherein each of said metering devices includes - an upper housing; a lower housing removably engaged with said upper housing; and at least one metering wheel (53, 54) positioned within an interior space presented by said upper housing or said lower housing; and characterized by a calibration system (110, 120) comprising a tray and a connection assembly, wherein said connection assembly is configured to hold said tray below said metering devices when said lower housings of said metering devices are removed from said upper housings, wherein the connection assembly is either: a hanging assembly comprising one or more hanger elements including one or more hooks on an upper end thereof, the hooks being configured to secure over a driveshaft (18, 70) of the implement so as to secure the tray below the plurality of metering devices; or a securement assembly comprising a further lower housing having a plurality of receiving hooks extending upwards from the further lower housing and components of a spring lock, the securement assembly being removably engagable with the upper housing. a bin for holding the agricultural product; a plurality of metering devices secured to a bottom of said bin and configured to dispense agricultural product from the bin into or onto the ground, wherein each of said metering devices includes - an upper housing; a lower housing removably engaged with said upper housing; and at least one metering wheel (53, 54) positioned within an interior space presented by said upper housing or said lower housing; and an upper housing; a lower housing removably engaged with said upper housing; and at least one metering wheel (53, 54) positioned within an interior space presented by said upper housing or said lower housing; and characterized by a calibration system (110, 120) comprising a tray and a connection assembly, wherein said connection assembly is configured to hold said tray below said metering devices when said lower housings of said metering devices are removed from said upper housings, wherein the connection assembly is either: a hanging assembly comprising one or more hanger elements including one or more hooks on an upper end thereof, the hooks being configured to secure over a driveshaft (18, 70) of the implement so as to secure the tray below the plurality of metering devices; or a securement assembly comprising a further lower housing having a plurality of receiving hooks extending upwards from the further lower housing and components of a spring lock, the securement assembly being removably engagable with the upper housing.
An enteral composition comprising two different non-digestible oligosaccharides and at least one partial protein hydrolysate, wherein the partial protein hydrolysate is partial whey protein hydrolysate and wherein the two different non-digestible oligosaccharides are a β-galacto-oligosaccharide and a fructo-oligosaccharide, and wherein the partial whey protein hydrolysate comprises at least one beta-lactoglobulin peptide comprising a sequence selected from the group consisting of SEQ ID NO 1, SEQ ID NO 2, SEQ ID NO 3 and SEQ ID NO 4.
A varistor, comprising: a ceramic body; and a multilayer coating disposed around the ceramic body, the multilayer coating comprising: a first inner layer comprising a phenolic resin or a silicone resin; and a second outer layer adjacent the first layer, characterized in that the second outer layer comprises an alkyd resin with a high dielectric strength. a ceramic body; and a multilayer coating disposed around the ceramic body, the multilayer coating comprising: a first inner layer comprising a phenolic resin or a silicone resin; and a second outer layer adjacent the first layer, characterized in that the second outer layer comprises an alkyd resin with a high dielectric strength. a first inner layer comprising a phenolic resin or a silicone resin; and a second outer layer adjacent the first layer, characterized in that the second outer layer comprises an alkyd resin with a high dielectric strength.
A method for controlling a compression release brake arrangement for an engine, the method performed by a control device, the compression release brake arrangement comprising: an exhaust valve actuator assembly configured to, when activated, perform compression release braking of at least a first cylinder of the engine; a conduit fluidly connected to the exhaust valve actuator assembly; the conduit comprising a first actuator valve and a second actuator valve, the second actuator valve arranged in parallel to the first actuator valve; and at least one pump configured to supply hydraulic fluid via the conduit to the exhaust valve actuator assembly; the method comprising: in advance of an activation of the exhaust valve actuator assembly, controlling the first actuator valve and the second actuator valve so as to achieve a first state in which one of the first actuator valve and the second actuator valve is in an open state whereas the other one of the first and the second actuator valve (16, 18) is in a closed state. the compression release brake arrangement comprising: an exhaust valve actuator assembly configured to, when activated, perform compression release braking of at least a first cylinder of the engine; a conduit fluidly connected to the exhaust valve actuator assembly; the conduit comprising a first actuator valve and a second actuator valve, the second actuator valve arranged in parallel to the first actuator valve; and at least one pump configured to supply hydraulic fluid via the conduit to the exhaust valve actuator assembly; an exhaust valve actuator assembly configured to, when activated, perform compression release braking of at least a first cylinder of the engine; a conduit fluidly connected to the exhaust valve actuator assembly; the conduit comprising a first actuator valve and a second actuator valve, the second actuator valve arranged in parallel to the first actuator valve; and at least one pump configured to supply hydraulic fluid via the conduit to the exhaust valve actuator assembly; the method comprising: in advance of an activation of the exhaust valve actuator assembly, controlling the first actuator valve and the second actuator valve so as to achieve a first state in which one of the first actuator valve and the second actuator valve is in an open state whereas the other one of the first and the second actuator valve (16, 18) is in a closed state.
A pressure detection device comprising: a pressure detection portion including a pressure detection surface (11a, 11b) for detecting a pressure of a fluid; a flow channel body having a flow channel formed therein, wherein the flow channel is configured to guide the fluid to the pressure detection surface (11a, 11b); and a contact portion disposed in contact with the pressure detection portion; characterised in that: the contact portion is formed of a conductive fluororesin material including a fluororesin material and a conductive material dispersed in the fluororesin material, and is maintained at a ground potential. a pressure detection portion including a pressure detection surface (11a, 11b) for detecting a pressure of a fluid; a flow channel body having a flow channel formed therein, wherein the flow channel is configured to guide the fluid to the pressure detection surface (11a, 11b); and a contact portion disposed in contact with the pressure detection portion; characterised in that: the contact portion is formed of a conductive fluororesin material including a fluororesin material and a conductive material dispersed in the fluororesin material, and is maintained at a ground potential.
A lamp comprising: a discharge vessel; electrodes (20,22) extending into the discharge vessel; an ionizable fill sealed within the vessel, the fill comprising: a buffer gas, optionally mercury, and a halide component, the halide component including a rare earth halide selected from the group consisting of lanthanum halides, cerium halides, neodymium halides, praseodymium halides, samarium halides, and combinations thereof; available oxygen, sealed within the vessel at a concentration of at least 0.1 μmol O/cc and up to 1.5 μmol O/cc; characterized in that a ratio of total halide O / cc of arc tube volume in the fill is from 900 to 6000. a discharge vessel; electrodes (20,22) extending into the discharge vessel; an ionizable fill sealed within the vessel, the fill comprising: a buffer gas, optionally mercury, and a halide component, the halide component including a rare earth halide selected from the group consisting of lanthanum halides, cerium halides, neodymium halides, praseodymium halides, samarium halides, and combinations thereof; a buffer gas, optionally mercury, and a halide component, the halide component including a rare earth halide selected from the group consisting of lanthanum halides, cerium halides, neodymium halides, praseodymium halides, samarium halides, and combinations thereof; available oxygen, sealed within the vessel at a concentration of at least 0.1 μmol O/cc and up to 1.5 μmol O/cc; characterized in that a ratio of total halide O / cc of arc tube volume in the fill is from 900 to 6000.
A system for mitigating an overspeeding condition of a turbine engine, the system comprising: a sensor for measuring an actual speed of a gas generator turbine of the turbine engine; a processor operable to determine a difference, delta, between the actual speed of the gas generator turbine and a predicted gas generator turbine speed, so as to thereby detect an overspeeding condition when delta is higher than a predetermined threshold; a fuel control unit configured to provide fuel flow from a fuel supply to the turbine engine; an inline restrictor value; a valve disposed between the fuel control unit and the fuel supply and configured to re-direct the fuel flow from upstream of the fuel control unit to the inline restrictor valve downstream of the valve, upon detection of the overspeeding condition, the restrictor valve being sized to limit the fuel supplied to the turbine engine to a predefined flow rate, and wherein the resulting fuel flow supplied to the turbine engine flows in a fluid path downstream of both the fuel control unit and the restrictor valve. a sensor for measuring an actual speed of a gas generator turbine of the turbine engine; a processor operable to determine a difference, delta, between the actual speed of the gas generator turbine and a predicted gas generator turbine speed, so as to thereby detect an overspeeding condition when delta is higher than a predetermined threshold; a fuel control unit configured to provide fuel flow from a fuel supply to the turbine engine; an inline restrictor value; a valve disposed between the fuel control unit and the fuel supply and configured to re-direct the fuel flow from upstream of the fuel control unit to the inline restrictor valve downstream of the valve, upon detection of the overspeeding condition, the restrictor valve being sized to limit the fuel supplied to the turbine engine to a predefined flow rate, and wherein the resulting fuel flow supplied to the turbine engine flows in a fluid path downstream of both the fuel control unit and the restrictor valve.
A non-oriented magnetic steel sheet consisting of, by mass%, C: 0.005% or less; Si: 2% to 4%; Mn and V: totally 11% or less; wherein the content of Mn is 10% or less; wherein the content of V is 10% or less; Al: 3% or less; P: 0.3% or less; S: 0.04% or less; N: 0.02% or less; Cu: 5% or less; Nb: 1% or less; Ti: 1% or less; B: 0.01% or less; Ni: 5% or less; Cr: 15% or less; and optionally at least one selected from a group consisting of Mo, W, Sn, Sb, Mg, Ca, Ce, and Co, a total content of at least the one being 0.5% or less, with the balance being Fe and inevitable impurities, wherein a Mn concentration (mass%) and a V concentration (mass%) in a thickness direction satisfy the following formula: 0.1 < Xs Mn, V − Xc Mn, V / t Mn, V < 100, where Xs Mn,V: a sum of the Mn concentration (mass%) and the V concentration (mass%) at a surface of the steel sheet, Xc Mn,V: a sum of the Mn concentration (mass%) and the V concentration (mass%) at a center of the steel sheet, and t Mn,V: a depth (mm), from the surface of the steel sheet, of a position where the sum of the Mn concentration (mass%) and the V concentration (mass%) is equal to Xc Mn,V. Xs Mn,V: a sum of the Mn concentration (mass%) and the V concentration (mass%) at a surface of the steel sheet, Xc Mn,V: a sum of the Mn concentration (mass%) and the V concentration (mass%) at a center of the steel sheet, and t Mn,V: a depth (mm), from the surface of the steel sheet, of a position where the sum of the Mn concentration (mass%) and the V concentration (mass%) is equal to Xc Mn,V.
A finger-grip device for a syringe or cartridge with a cylindrical barrel and a plunger, said device comprising: • a bottom part, and • a top part; wherein said parts ( 9; 1) have different sizes and are mutually connected to each other to form a lodging area ( c) between said bottom part and said top part for the placement of a flange of the cylindrical barrel of said syringe or cartridge, and wherein said top part presents means ( 4; 2) that allows anchoring of the device to the flange by a snapping and locking movement so that said device does not block or hinder the run of the plunger within the cylindrical barrel of the syringe or cartridge during injection or withdrawal operations, characterized in that: • the bottom part has an elliptical open shape and the top part has a pseudo square open shape, said both parts ( 9; 1) having a respective coaxial circular open cavity ( 10; 3); • the bottom part presents anti-slip means which is in the form of multiple high relief means, and • said device allows removal of the plunger from the syringe or cartridge even when the device is anchored on the cylindrical barrel. • a bottom part, and • a top part; • the bottom part has an elliptical open shape and the top part has a pseudo square open shape, said both parts ( 9; 1) having a respective coaxial circular open cavity ( 10; 3); • the bottom part presents anti-slip means which is in the form of multiple high relief means, and • said device allows removal of the plunger from the syringe or cartridge even when the device is anchored on the cylindrical barrel.
Arrangement comprising a flow cell and a temperature-control element, with a temperature-control chamber, which receives a fluid to be controlled in its temperature and the boundary wall of which is formed at least partially by a thin film transmitting heat between the temperature-control element and the fluid, the film being formed as a composite film comprising multiple interconnected layers (8, 10), the layer facing the fluid being a layer of plastic, at least one further layer consisting of a metal, the temperature-control chamber being formed by a recess in a substrate covered with the composite film and the composite film being connected to the substrate, characterized in that the composite film can be drawn against the temperature-control element by suction channels formed in the temperature-control element or in that the temperature-control element (11, 11b, 11c) only lies against the composite film (2, 2b, 2c) in a peripheral region that is adjacent to the recess in the substrate (1, 1b, 1c) and in which the composite film (2, 2b, 2c) is connected to the surface of the substrate (1, 1b, 1c).
An amusement park system, comprising: a ride vehicle configured to move along a path and including a slot extending within a hull of the ride vehicle; an aquatic portion of the path defined by a water flow path; an aerial portion of the path defined by a track; and a bogie comprising a wheel assembly configured to couple to the track and a prong configured to couple to the ride vehicle, wherein the ride vehicle is configured to freely float and move along the water flow path in response to currents of the water flow path, and wherein the track is configured to support the bogie and the ride vehicle is configured to be carried along the track by the bogie, wherein the slot of the ride vehicle is configured to receive the prong of the bogie. a ride vehicle configured to move along a path and including a slot extending within a hull of the ride vehicle; an aquatic portion of the path defined by a water flow path; an aerial portion of the path defined by a track; and a bogie comprising a wheel assembly configured to couple to the track and a prong configured to couple to the ride vehicle, wherein the ride vehicle is configured to freely float and move along the water flow path in response to currents of the water flow path, and wherein the track is configured to support the bogie and the ride vehicle is configured to be carried along the track by the bogie, wherein the slot of the ride vehicle is configured to receive the prong of the bogie.
A compression pouch comprising; a rear shell; a front shell with a compartment; a compression layer positioned between the front shell and the rear shell, the compression layer being configured to apply compressive forces against the front shell to reduce a volume of the compartment; a zipper configured to turn three hundred sixty degrees within the compression layer; a flap with a first end that is permanently coupled to the rear shell, and a second end that is configured to be selectively coupled to the front shell. a rear shell; a front shell with a compartment; a compression layer positioned between the front shell and the rear shell, the compression layer being configured to apply compressive forces against the front shell to reduce a volume of the compartment; a zipper configured to turn three hundred sixty degrees within the compression layer; a flap with a first end that is permanently coupled to the rear shell, and a second end that is configured to be selectively coupled to the front shell.