mhurhangee/ep-ind-claims huggingface dataset:
An inflation system, comprising: a gas source; a valve including: a valve body; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston, wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve. a gas source; a valve including: a valve body; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston, wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve. a valve body; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston, wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve.
Kit of parts comprising an extension part for an injection valve for a combustion engine, the injection valve comprising a base injector part, and the base injector part, - the extension part comprising a first fluid inlet portion with a first sealing section and a fluid outlet portion, - the first fluid inlet portion of the extension part being designed to be coupled to a fuel rail cup in such a way that the first sealing section of the first fluid inlet portion is coupled in a given first coupling area in a force-fitting manner with the fuel rail cup, - the base injector part comprising a second fluid inlet portion, - the fluid outlet portion of the extension part being designed to be coupled to the second fluid inlet portion of the base injector part in a given second coupling area in a force-fitting manner, characterized in that the first fluid inlet portion of the extension part and the second fluid inlet portion of the base injector part have identical geometric dimensions so that the base injector part is usable with or without the extension part for the same fuel rail cups. - the extension part comprising a first fluid inlet portion with a first sealing section and a fluid outlet portion, - the first fluid inlet portion of the extension part being designed to be coupled to a fuel rail cup in such a way that the first sealing section of the first fluid inlet portion is coupled in a given first coupling area in a force-fitting manner with the fuel rail cup, - the base injector part comprising a second fluid inlet portion, - the fluid outlet portion of the extension part being designed to be coupled to the second fluid inlet portion of the base injector part in a given second coupling area in a force-fitting manner, characterized in that
A plastics film, which at least on one side has a surface structure formed from rows of isolated elevations (a) arranged in parallel, characterised in that the plastics film is based on a material from the group of plasticiser-containing polyvinyl acetal, plasticiser-containing polyvinyl butyral, ethylene/vinyl acetate copolymers, ethylene/vinyl acetate/vinyl alcohol copolymers, partially acetalised ethylene/vinyl acetate/vinyl alcohol copolymer, polyvinyl chloride and/or polyurethane and the quotient of length and width of the elevations is 2 to 50 and the rows arranged in parallel are arranged offset in relation to one another such that the elevations of a row border the adjacent rows in a periodically offset manner and have a common valley at the height of the base area of the elevations.
An aircraft having a vertical takeoff and landing mode, a forward flight mode and a storage mode, the aircraft comprising: a fuselage having a forward portion and an aft portion in the forward flight mode, the forward portion including first and second rotor stations (18, 20); a first rotor assembly having a plurality of first rotor blades (22b-c) positioned at the first rotor station; a second rotor assembly having a plurality of second rotor blades (24b-c) positioned at the second rotor station, the second rotor assembly coaxial with the first rotor assembly; a tailboom assembly extending from the aft portion of the fuselage, the tailboom assembly including a plurality of landing members; and a pusher propeller extending from the tailboom assembly; wherein, in the vertical takeoff and landing mode, the first and second rotor assemblies (22, 24) rotate about the fuselage to provide vertical thrust; and wherein, in the forward flight mode, rotation of the pusher propeller provides forward thrust and the first and second rotor assemblies (22, 24) are non-rotatable about the fuselage forming a dual wing configuration to provide lift; wherein, in the storage mode, the first rotor blades (22b-c) and the second rotor blades (24b-c) are folded in the aft direction toward the pusher propeller such that the first rotor blades (22b-c) and the second rotor blades (24b-c) are generally parallel with a longitudinal fuselage axis to reduce aircraft geometry. a fuselage having a forward portion and an aft portion in the forward flight mode, the forward portion including first and second rotor stations (18, 20); a first rotor assembly having a plurality of first rotor blades (22b-c) positioned at the first rotor station; a second rotor assembly having a plurality of second rotor blades (24b-c) positioned at the second rotor station, the second rotor assembly coaxial with the first rotor assembly; a tailboom assembly extending from the aft portion of the fuselage, the tailboom assembly including a plurality of landing members; and a pusher propeller extending from the tailboom assembly; wherein, in the vertical takeoff and landing mode, the first and second rotor assemblies (22, 24) rotate about the fuselage to provide vertical thrust; and wherein, in the forward flight mode, rotation of the pusher propeller provides forward thrust and the first and second rotor assemblies (22, 24) are non-rotatable about the fuselage forming a dual wing configuration to provide lift; wherein, in the storage mode, the first rotor blades (22b-c) and the second rotor blades (24b-c) are folded in the aft direction toward the pusher propeller such that the first rotor blades (22b-c) and the second rotor blades (24b-c) are generally parallel with a longitudinal fuselage axis to reduce aircraft geometry.
Snow generating system comprising - a circumferential tunnel in the form of a closed loop, - a circulating device arranged in the tunnel for continuously moving an air current in a circuit along the tunnel, - a cooling device for cooling the air current, - a water/air injection device for feeding water and air into the cold air current, - the tunnel being formed as a tower-like, thermally insulated circumferential tube having a vertical longitudinal axis, characterised in that the inner cross-sectional area of the tube varies over the entire length of the tube by less than 30% and the position of the water/air injection device can be changed within the tube. - a circumferential tunnel in the form of a closed loop, - a circulating device arranged in the tunnel for continuously moving an air current in a circuit along the tunnel, - a cooling device for cooling the air current, - a water/air injection device for feeding water and air into the cold air current, - the tunnel being formed as a tower-like, thermally insulated circumferential tube having a vertical longitudinal axis, characterised in that the inner cross-sectional area of the tube varies over the entire length of the tube by less than 30% and the position of the water/air injection device can be changed within the tube.
A biosensor, featured in comprising an insulative substrate and an electrode system comprising a working electrode, a counter electrode on the insulative substrate, the electrode system comprising a reaction reagent that can react with samples to be detected and an insulating layer thereon; the insulating layer partially covering the electrode system and forming a closed region, at the location where the reaction reagent lies, without any insulating layer covered, the reaction reagent lying on a part of the electrode (2, 3) in the closed region; the closed region having a closed boundary being either a circle, an oval, two relative ovals, or rectangle with four circular vertex angles; and the reaction reagent covering the whole area of the closed region without extending beyond the closed boundary, wherein the reagent is evenly distributed in the active region of the electrode system the electrode system further comprising at least one assisted diffusion electrode made up of porous materials for controlling the diffusion of the enzyme reaction reagent.
A manifold for an inkjet printer, comprising a main body with an ink cavity and a temperature control fluid cavity which is in thermal contact with the ink cavity, the manifold further comprising at least one ink inlet, at least one ink outlet, at least one temperature control fluid inlet and at least one temperature control fluid outlet, characterised in that the main body, the at least one ink inlet, the at least one ink outlet, the at least one temperature control fluid inlet and the at least one temperature control fluid outlet consist of the same material and form a single piece.
An electric double layer capacitor, wherein a positive electrode comprises graphite as a positive electrode active material, a current collector on the positive electrode side is an aluminum material, the aluminum material is coated exclusively with an amorphous carbon film, and the amorphous carbon film has a thickness in a range from 60 nm or more to 300 nm or less.
A decoration member comprising: a color developing layer comprising a light reflective layer and a light absorbing layer provided on the light reflective layer; and a substrate provided on one surface of the color developing layer, wherein the light absorbing layer comprises a molybdenum-titanium oxide (Mo a Ti b O x); and ω represented by Equation 1 is greater than or equal to 0.001 and less than or equal to 0.4 when conducting a component analysis on any one point of the light absorbing layer: ω = T x × σ x f T 1 = T 1 T 0 0 < T 1 ≤ T 0 f T 1 = f T 1 + n × T 0 σ x = a + b x wherein, in Equation 1, T x is a T 1 -dependent function value of a function represented by f(T 1), n is a positive integer of 1 or greater, and σ x is represented by Equation 3; wherein, in Equation 2, T 1 is a thickness of the light absorbing layer comprising the any one point of the light absorbing layer on which the component analysis is conducted, and T o is 80 nm; and wherein, in Equation 3, a means an element content ratio of molybdenum (Mo), b means an element content ratio of titanium (Ti), and x means an element content ratio of oxygen. a color developing layer comprising a light reflective layer and a light absorbing layer provided on the light reflective layer; and a substrate provided on one surface of the color developing layer, wherein the light absorbing layer comprises a molybdenum-titanium oxide (Mo a Ti b O x); and ω represented by Equation 1 is greater than or equal to 0.001 and less than or equal to 0.4 when conducting a component analysis on any one point of the light absorbing layer: ω = T x × σ x f T 1 = T 1 T 0 0 < T 1 ≤ T 0 f T 1 = f T 1 + n × T 0 σ x = a + b x wherein, in Equation 1, T x is a T 1 -dependent function value of a function represented by f(T 1), n is a positive integer of 1 or greater, and σ x is represented by Equation 3; wherein, in Equation 2, T 1 is a thickness of the light absorbing layer comprising the any one point of the light absorbing layer on which the component analysis is conducted, and T o is 80 nm; and wherein, in Equation 3, a means an element content ratio of molybdenum (Mo), b means an element content ratio of titanium (Ti), and x means an element content ratio of oxygen. wherein, in Equation 1, T x is a T 1 -dependent function value of a function represented by f(T 1), n is a positive integer of 1 or greater, and σ x is represented by Equation 3; wherein, in Equation 2, T 1 is a thickness of the light absorbing layer comprising the any one point of the light absorbing layer on which the component analysis is conducted, and T o is 80 nm; and wherein, in Equation 3, a means an element content ratio of molybdenum (Mo), b means an element content ratio of titanium (Ti), and x means an element content ratio of oxygen.
A herbicidal composition comprising a herbicidally effective amount of (a) (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane, any of its individual enantiomers or any non-racemic mixture thereof (herbicide A) and (b) dimethachlor (herbicide B) wherein the weight ratio of herbicide A to herbicide B is in the range from 1:0.5 to 1:16.
A power transmission unit for a vehicle, comprising: a continuously variable transmission that is adapted to alter a speed ratio continuously, and that is disposed between an input shaft to which a torque of a prime mover is inputted and an output shaft rotated by the torque transmitted from the input shaft; a first gear train (10, 17) for transmitting the torque when propelling the vehicle in the forward direction; and a second gear train (11, 19, 20) for transmitting the torque to propel the vehicle backwardly by rotating the output shaft in an opposite direction to a rotational direction of the input shaft when propelling the vehicle in the backward direction and that is arranged parallel to the first gear train (10, 17); a first clutch device configured to selectively allow a torque transmitting route from the input shaft to the output shaft via the first gear train (10, 17) to transmit the torque therethrough; a dog clutch configured to switch the torque transmitting route from the input shaft to the output shaft between a continuously variable speed change route in which the torque is transmitted through the continuously variable transmission and a reverse route in which the torque is transmitted through the second gear train (11, 19, 20); and a second clutch device configured to connect and disconnect both of the continuously variable speed change route and the reverse route to/from the output shaft, characterized in that the second clutch device is disposed at a site to transmit the torque from the continuously variable speed change route and the reverse route to the output shaft. a continuously variable transmission that is adapted to alter a speed ratio continuously, and that is disposed between an input shaft to which a torque of a prime mover is inputted and an output shaft rotated by the torque transmitted from the input shaft; a first gear train (10, 17) for transmitting the torque when propelling the vehicle in the forward direction; and a second gear train (11, 19, 20) for transmitting the torque to propel the vehicle backwardly by rotating the output shaft in an opposite direction to a rotational direction of the input shaft when propelling the vehicle in the backward direction and that is arranged parallel to the first gear train (10, 17); a first clutch device configured to selectively allow a torque transmitting route from the input shaft to the output shaft via the first gear train (10, 17) to transmit the torque therethrough; a dog clutch configured to switch the torque transmitting route from the input shaft to the output shaft between a continuously variable speed change route in which the torque is transmitted through the continuously variable transmission and a reverse route in which the torque is transmitted through the second gear train (11, 19, 20); and a second clutch device configured to connect and disconnect both of the continuously variable speed change route and the reverse route to/from the output shaft, characterized in that the second clutch device is disposed at a site to transmit the torque from the continuously variable speed change route and the reverse route to the output shaft.
A seed meter (80, 100, 120, 140) for use on a row unit of an agricultural implement, comprising: a housing (81, 101, 121, 142); characterized in that first and second seed discs (82, 84, 102, 104, 122, 124, 146) are rotatably positioned within the housing (81, 101, 121, 142), with each disc (82, 84, 102, 104, 122, 124, 146) comprising a plurality of seed apertures forming a seed path; and an integrated, electric fluid pressure source (88, 128, 150, 103, 105) is positioned at the housing (81, 101, 121, 142) and configured to provide a pressure differential for the seed apertures of the seed path to temporarily adhere a seed. a housing (81, 101, 121, 142); characterized in that first and second seed discs (82, 84, 102, 104, 122, 124, 146) are rotatably positioned within the housing (81, 101, 121, 142), with each disc (82, 84, 102, 104, 122, 124, 146) comprising a plurality of seed apertures forming a seed path; and an integrated, electric fluid pressure source (88, 128, 150, 103, 105) is positioned at the housing (81, 101, 121, 142) and configured to provide a pressure differential for the seed apertures of the seed path to temporarily adhere a seed.
An implantable subcutaneous medical drug delivery device containing (i) at least one matrix, (ii) at least one drug material, (iii) at least one outer coating that at least partially surrounds at least one said matrix and (iv) at least one hole, wherein: at least one hole is used to deliver one or more drug materials from said matrix, at least one matrix contains at least one biodegradable material; at least one matrix contains at least one drug material, and the amount of one drug material in a biodegradable material of a matrix is intentionally varied in concentration within that matrix in order to regulate or improve the flow of the drug material over a desired drug delivery time period of at least 3 days; wherein the matrix includes at least one first drug material and an anticoagulation drug, in order to at least partially improve the delivery of the first drug material, wherein the anticoagulation drug material is used in a low level so as to lessen the formation of blood clotting in or near (i) at least a portion of said matrix, (ii) at least a portion of at least one hole or (iii) at least a portion of at least one outer coating, and/or (iv) to improve the delivery of a drug material during the desired drug delivery period or (v) to lessen the amount of a drug material remaining in the device when the device is removed wherein the anticoagulant material is mixed with drug material, or matrix material; and wherein the % composition of the anticoagulant drug material is varied in at least one portion of a matrix. (i) at least one matrix, (ii) at least one drug material, (iii) at least one outer coating that at least partially surrounds at least one said matrix and (iv) at least one hole, at least one hole is used to deliver one or more drug materials from said matrix, at least one matrix contains at least one biodegradable material; at least one matrix contains at least one drug material, and the amount of one drug material in a biodegradable material of a matrix is intentionally varied in concentration within that matrix in order to regulate or improve the flow of the drug material over a desired drug delivery time period of at least 3 days;
Horticultural biodegradable mulch film consisting of an arrangement of natural non-woven fibers forming a longitudinal plane, said arrangement comprising hair and woolly fibers mixed and assembled in a non-woven consolidated arrangement, the hair constituting a mass rate of at least 50% of the total fibers, the woolly fibers making up more than 20% by weight of all the fibers, and more preferably more than 30% by weight of all the fibers, and even more preferably more than 40% by weight of all the fibers in the film.
A surface acoustic wave resonator comprising: a piezoelectric substrate; a first surface acoustic wave resonator having a comb electrode provided on the piezoelectric substrate; and a second surface acoustic wave resonator having a comb electrode (21 a) provided on the piezoelectric substrate, wherein a spurious response occurs within the passing frequency band due to standing waves developed in a direction orthogonal to the propagating direction, wherein a frequency of the spurious response in the transverse mode is dependent upon the overlapping lengths L1 and L2 of the comb electrodes (22a, 21 a) of the first surface acoustic wave resonator and the second surface acoustic wave resonator, wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator are apodized, wherein the term apodization refers to a technique in designing the surface acoustic wave resonator to obtain a desired frequency characteristic by varying overlapping lengths of the electrode fingers, and wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator are connected in parallel, wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator comb electrodes (21 a, 22a) are formed different in their overlapping lengths L1 and L2, such that they have a relation of L1 > L2 to differentiate the resonance frequencies in the transverse mode between the first surface acoustic wave resonator and the second surface acoustic wave resonator, so as to separate the spurious responses to the transverse mode resonances. a piezoelectric substrate; a first surface acoustic wave resonator having a comb electrode provided on the piezoelectric substrate; and a second surface acoustic wave resonator having a comb electrode (21 a) provided on the piezoelectric substrate, wherein a spurious response occurs within the passing frequency band due to standing waves developed in a direction orthogonal to the propagating direction, wherein a frequency of the spurious response in the transverse mode is dependent upon the overlapping lengths L1 and L2 of the comb electrodes (22a, 21 a) of the first surface acoustic wave resonator and the second surface acoustic wave resonator, wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator are apodized, wherein the term apodization refers to a technique in designing the surface acoustic wave resonator to obtain a desired frequency characteristic by varying overlapping lengths of the electrode fingers, and wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator are connected in parallel, wherein the first surface acoustic wave resonator and the second surface acoustic wave resonator comb electrodes (21 a, 22a) are formed different in their overlapping lengths L1 and L2, such that they have a relation of L1 > L2 to differentiate the resonance frequencies in the transverse mode between the first surface acoustic wave resonator and the second surface acoustic wave resonator, so as to separate the spurious responses to the transverse mode resonances.