mhurhangee/ep-ind-claims huggingface dataset:
A catheter extending between a proximal end and a distal end, and comprising a pressure monitoring apparatus (45,72,101) for monitoring pressure in a liquid, the pressure monitoring apparatus (45,72,101) comprising a pressure sensor for monitoring the pressure in the liquid, wherein a balloon is mounted on the catheter, characterised in that the pressure sensor comprises a pressure sensing interface communicating directly with a gas in a gas chamber, an elongated communicating bore (58,73,102) extending from the gas chamber longitudinally along a portion of the catheter and terminating adjacent an outer surface of the catheter to communicate the gas chamber with the liquid, the pressure of which is to be monitored, the communicating bore (58,73,102) having a working length ( L w) along which a liquid/gas interface meniscus travels in response to pressure variation in the liquid, the working length of the communicating bore (58,73,102) being of length to contain the travel of the liquid/gas interface meniscus within the working range of pressures being monitored, the transverse cross-sectional area of the communicating bore (58,73,102) along the working length thereof being such as to prevent the passage of liquid past or through the liquid/gas interface meniscus, and to prevent the passage of gas past or through the liquid/gas interface meniscus; and wherein the communicating bore (58,73,102) communicates with the balloon. characterised in that the pressure sensor comprises a pressure sensing interface communicating directly with a gas in a gas chamber, an elongated communicating bore (58,73,102) extending from the gas chamber longitudinally along a portion of the catheter and terminating adjacent an outer surface of the catheter to communicate the gas chamber with the liquid, the pressure of which is to be monitored, the communicating bore (58,73,102) having a working length ( L w) along which a liquid/gas interface meniscus travels in response to pressure variation in the liquid, the working length of the communicating bore (58,73,102) being of length to contain the travel of the liquid/gas interface meniscus within the working range of pressures being monitored, the transverse cross-sectional area of the communicating bore (58,73,102) along the working length thereof being such as to prevent the passage of liquid past or through the liquid/gas interface meniscus, and to prevent the passage of gas past or through the liquid/gas interface meniscus; and wherein the communicating bore (58,73,102) communicates with the balloon.
Cosmetic O/W emulsion comprising a) alkyl sulphate in a concentration of from 0.05 to 1.5% by weight, b) inorganic UV light protection filter pigments in an amount of at least 10% by weight, in each case based on the total weight of the preparation, characterized in that the inorganic UV light protection filter pigments used are mixtures of titanium dioxide and zinc oxide pigments, that the preparation has a light protection factor of at least 15 and that the comprises one or more W/O emulsifiers which are selected from the group of the compounds polysiloxane polyether-polyalkane copolymers, polyglycerol poly-12-hydroxystearate or PEG-30 dipolyhydroxystearate. a) alkyl sulphate in a concentration of from 0.05 to 1.5% by weight, b) inorganic UV light protection filter pigments in an amount of at least 10% by weight,
A tilling apparatus for forming at least two spaced apart trenches, characterised in that the tilling apparatus includes a rotary shaft, a framework arrangement and a cutting assembly, the rotary shaft being rotatable when driven, the framework arrangement being arranged such that the framework arrangement includes a transverse framework member overlying the cutting assembly and side plates (28,30) located at the ends of the cutting assembly to form a cover over the cutting assembly for shrouding the cutting assembly, the cutting assembly being rotatable with respect to the transverse framework member in accordance with rotation of the rotary shaft, the cutting assembly including groups of cutters connected to the rotary shaft at spaced apart locations along the length of the rotary shaft, the individual cutters of one group of cutters being located at spaced apart locations around the rotary shaft for forming one trench upon rotation of the cutters, wherein the individual cutter comprises a first part fixedly connected to the rotary shaft for rotation in accordance with corresponding rotation of the rotary shaft and a second part for forming the trench as the cutter rotates, the second part being located distally of and extending outwardly from the first part, wherein the width of the trench formed by rotation of the second part of the cutter corresponds to the amount of extension outwardly of the second part of the cutter from the first part of the cutter wherein soil removed from the trench by rotation of the second part of the cutter in forming the trench is granulated by rotation of the cutter and by the soil contacting the transverse framework member overlying the cutter to form the soil particles, and wherein a first part of the soil particles removed from the trench forms an aerated layer of soil particles interspersed with voids in the trench and a second part of the soil particles is deposited on at least one side edge of the trench.
A system for controlling a vehicle by jointly estimating a state of a vehicle and a function of a tire friction of a vehicle traveling on a road, wherein the tire friction function is a nonlinear function describing a friction between a surface of the road and a tire of the vehicle as a function of wheel slip of a wheel of the vehicle, wherein the state of the vehicle includes a velocity and a heading rate of the vehicle, comprising: a memory configured to store a particle filter maintaining a set of particles, each particle includes an estimation of the state of the vehicle, an estimation of probability density function (pdf) of the tire friction function, and a weight indicative of a probability of the particle; a processor configured to execute the particle filter to update the particles based on a motion model and a measurement model of the vehicle, control commands moving the vehicle and measurements of the state where the vehicle moved according to the control commands; and generate a control command based on the motion of the vehicle, the weighted combinations of the state of the vehicle and the pdf of the tire friction function weighted according corresponding weights of the particles; and submit the control command to at least one actuator of the vehicle. a memory configured to store a particle filter maintaining a set of particles, each particle includes an estimation of the state of the vehicle, an estimation of probability density function (pdf) of the tire friction function, and a weight indicative of a probability of the particle; a processor configured to execute the particle filter to update the particles based on a motion model and a measurement model of the vehicle, control commands moving the vehicle and measurements of the state where the vehicle moved according to the control commands; and generate a control command based on the motion of the vehicle, the weighted combinations of the state of the vehicle and the pdf of the tire friction function weighted according corresponding weights of the particles; and execute the particle filter to update the particles based on a motion model and a measurement model of the vehicle, control commands moving the vehicle and measurements of the state where the vehicle moved according to the control commands; and generate a control command based on the motion of the vehicle, the weighted combinations of the state of the vehicle and the pdf of the tire friction function weighted according corresponding weights of the particles; and submit the control command to at least one actuator of the vehicle.
A method for identifying uplink multiplexing resources of a multibeam satellite that can be used in a terrestrial telecommunications system by a transmitting station to transmit radioelectric signals to a receiving station, in which: - said transmitting station or said receiving station is a base station having a range delimiting a zone of coverage in which said transmitting station is situated, - different beams of the satellite use different uplink multiplexing resources, characterized in that said method comprises, for each uplink multiplexing resource considered, steps of: - estimation of a maximum interference level authorized with respect to the satellite for this uplink multiplexing resource for radioelectric signals transmitted from the zone of coverage, - estimation of the power with which the radioelectric signals will be transmitted by the transmitting station, called the "radiation power", - measurement, by the transmitting station, of the level of reception of radioelectric signals transmitted by the satellite, called the "real reception level", - determination of a potential level of interference of the transmitting station as a function of the real reception level measured and of the estimated radiation power of said transmitting station, - determination whether this uplink multiplexing resource is usable by the transmitting station by comparing the potential level of interference of the transmitting station with the maximum interference level authorized for this uplink multiplexing resource. - said transmitting station or said receiving station is a base station having a range delimiting a zone of coverage in which said transmitting station is situated, - different beams of the satellite use different uplink multiplexing resources, - estimation of a maximum interference level authorized with respect to the satellite for this uplink multiplexing resource for radioelectric signals transmitted from the zone of coverage, - estimation of the power with which the radioelectric signals will be transmitted by the transmitting station, called the "radiation power", - measurement, by the transmitting station, of the level of reception of radioelectric signals transmitted by the satellite, called the "real reception level", - determination of a potential level of interference of the transmitting station as a function of the real reception level measured and of the estimated radiation power of said transmitting station, - determination whether this uplink multiplexing resource is usable by the transmitting station by comparing the potential level of interference of the transmitting station with the maximum interference level authorized for this uplink multiplexing resource.
A method for applying at least one electronic component to a surface of an object, the method comprising: - placing a component stencil on a support, wherein the component stencil comprises at least one opening corresponding to an electronic component; - arranging at least one electronic component in the corresponding opening of the component stencil with a top surface of the electronic component on the support; - positioning a contact material stencil on the component stencil, wherein the contact material stencil comprises at least one opening corresponding to at least one contact region on the bottom surface of the at least one electronic component; - applying a contact material on the at least one contact region of the at least one electronic component arranged in the corresponding opening of the contact material stencil; - removing the contact material stencil from the component stencil; - removing the component stencil from the support; and - applying the at least one electronic component to the surface, wherein the contact material connects the at least one electronic component to the surface of the object. - placing a component stencil on a support, wherein the component stencil comprises at least one opening corresponding to an electronic component; - arranging at least one electronic component in the corresponding opening of the component stencil with a top surface of the electronic component on the support; - positioning a contact material stencil on the component stencil, wherein the contact material stencil comprises at least one opening corresponding to at least one contact region on the bottom surface of the at least one electronic component; - applying a contact material on the at least one contact region of the at least one electronic component arranged in the corresponding opening of the contact material stencil; - removing the contact material stencil from the component stencil; - removing the component stencil from the support; and - applying the at least one electronic component to the surface, wherein the contact material connects the at least one electronic component to the surface of the object.
Diaphragm pump comprising a diaphragm, a solenoid with a movable magnetic armature as a drive element for the diaphragm, and a stop element for adjusting a stroke for the drive element, characterised in that at least one elastic damper is provided between the drive element and the stop element and comprises at least one compression chamber which is enclosed and formed by means of at least one elastic limiting wall and by means of at least one rigid limiting wall of the drive element and/or the stop element.
A mount, comprising: a locating pin; a load pin; and a fastener, the fastener configured to retain a component on at least one of the locating pin and the load pin, the fastener including a bolt configured to engage an engine case or fan case to mount the component with respect to the engine case or fan case, a mounting boss and a spring, the spring allowing the mounting boss to move with respect to the bolt, and characterized in that the bolt is held captive in the mounting boss with a captive feature (125A, 125B), the captive feature holding the bolt, the mounting boss and the spring together; and wherein the captive feature includes a resilient c-ring on the bolt, and wherein the resilient c-ring is configured to interact with a neck on the mounting boss. a locating pin; a load pin; and a fastener, the fastener configured to retain a component on at least one of the locating pin and the load pin, the fastener including a bolt configured to engage an engine case or fan case to mount the component with respect to the engine case or fan case, a mounting boss and a spring, the spring allowing the mounting boss to move with respect to the bolt, and characterized in that the bolt is held captive in the mounting boss with a captive feature (125A, 125B), the captive feature holding the bolt, the mounting boss and the spring together; and wherein the captive feature includes a resilient c-ring on the bolt, and wherein the resilient c-ring is configured to interact with a neck on the mounting boss.
A pattern forming apparatus for forming a pattern on a substrate, the pattern forming apparatus comprising: a holding means arranged to hold the substrate; and an optical system arranged to detect an alignment mark formed on the substrate when held by the holding means, from the holding surface side of the substrate, wherein the optical system includes a wavelength separation element arranged to perform wavelength separation between pattern forming light arranged to form a pattern on the substrate and alignment mark detection light arranged to detect the alignment mark, characterized in that the pattern forming light is near-ultraviolet light with a wavelength range of 100 to 400 nm. a holding means arranged to hold the substrate; and an optical system arranged to detect an alignment mark formed on the substrate when held by the holding means, from the holding surface side of the substrate, wherein the optical system includes a wavelength separation element arranged to perform wavelength separation between pattern forming light arranged to form a pattern on the substrate and alignment mark detection light arranged to detect the alignment mark, characterized in that the pattern forming light is near-ultraviolet light with a wavelength range of 100 to 400 nm.
A computer implemented method for executing a first program compiled for a source architecture on a machine having a target architecture different from the source architecture, wherein the target architecture uses a different addressing scheme than the source architecture, the method comprising: receiving by a processor said first program comprising first executable code compiled to execute on a source architecture; decompiling a load module of the first program into intermediate computer code formatted according to an intermediate code format; identifying a set of addresses that are exposed for external reference by a second program compiled to execute on the source architecture; storing in a computer memory an index of said addresses that are exposed for external reference, wherein the index values correspond to a range of invalid addresses in the target architecture, wherein each of the addresses are replaced by a corresponding index number in the intermediate code; recompiling the intermediate code into target executable code configured for the target architecture; incorporating the index of said addresses into the target executable code, wherein a linker assigns the entries in the index to addresses of the target architecture that are allocated to the target executable code; and executing said target executable code on a processor having said different target architecture, wherein said executing generates at least one invalid address and said invalid address is translated into a valid address using the incorporated index in the target executable code. receiving by a processor said first program comprising first executable code compiled to execute on a source architecture; decompiling a load module of the first program into intermediate computer code formatted according to an intermediate code format; identifying a set of addresses that are exposed for external reference by a second program compiled to execute on the source architecture; storing in a computer memory an index of said addresses that are exposed for external reference, wherein the index values correspond to a range of invalid addresses in the target architecture, wherein each of the addresses are replaced by a corresponding index number in the intermediate code; recompiling the intermediate code into target executable code configured for the target architecture; incorporating the index of said addresses into the target executable code, wherein a linker assigns the entries in the index to addresses of the target architecture that are allocated to the target executable code; and executing said target executable code on a processor having said different target architecture, wherein said executing generates at least one invalid address and said invalid address is translated into a valid address using the incorporated index in the target executable code.
A tire comprising: a carcass that is formed so as to include at least one sheet of carcass ply that extends from one bead portion to another bead portion; a belt that is disposed at a tire radial direction outer side of the carcass, and that is formed by a single sheet of belt ply in which a plurality of cords that are disposed with an inclination of not more than 10° relative to a tire circumferential direction and extend around an entire tire circumference in the tire circumferential direction are coated with a rubber coating having a tensile modulus of elasticity, as stipulated in JIS K7113: 1995, in excess of 50 MPa, one end portion in a longitudinal direction of all of the cords of the belt ply being positioned at one end side in a width direction of the belt ply, and another end portion in the longitudinal direction of the cords of the belt ply being positioned at another end side in the width direction of the belt ply; and a tread that is disposed at a tire radial direction outer side of the belt. a carcass that is formed so as to include at least one sheet of carcass ply that extends from one bead portion to another bead portion; a belt that is disposed at a tire radial direction outer side of the carcass, and that is formed by a single sheet of belt ply in which a plurality of cords that are disposed with an inclination of not more than 10° relative to a tire circumferential direction and extend around an entire tire circumference in the tire circumferential direction are coated with a rubber coating having a tensile modulus of elasticity, as stipulated in JIS K7113: 1995, in excess of 50 MPa, one end portion in a longitudinal direction of all of the cords of the belt ply being positioned at one end side in a width direction of the belt ply, and another end portion in the longitudinal direction of the cords of the belt ply being positioned at another end side in the width direction of the belt ply; and a tread that is disposed at a tire radial direction outer side of the belt.
An aerial vehicle comprising: a first motor configured to rotate a propeller such that the propeller generates a lifting force; the propeller including: a hub that is coupled to the first motor so that the first motor can rotate the propeller; and a propeller blade extending from the hub, the propeller blade including an upper surface and a lower surface; a propeller duct positioned around the propeller, characterised in that: a carbon nanotube transducer is formed in a mesh material and positioned over at least a portion of at least one of an entrance or an exit of the propeller duct; and a sound controller is in communication with the carbon nanotube transducer, the sound controller configured to provide a signal to the carbon nanotube transducer to cause the carbon nanotube transducer to activate, wherein the signal causes the carbon nanotube transducer to generate an anti-sound that interferes with a sound generated by a rotation of the propeller blade. a first motor configured to rotate a propeller such that the propeller generates a lifting force; the propeller including: a hub that is coupled to the first motor so that the first motor can rotate the propeller; and a propeller blade extending from the hub, the propeller blade including an upper surface and a lower surface; a hub that is coupled to the first motor so that the first motor can rotate the propeller; and a propeller blade extending from the hub, the propeller blade including an upper surface and a lower surface; a propeller duct positioned around the propeller, characterised in that: a carbon nanotube transducer is formed in a mesh material and positioned over at least a portion of at least one of an entrance or an exit of the propeller duct; and a sound controller is in communication with the carbon nanotube transducer, the sound controller configured to provide a signal to the carbon nanotube transducer to cause the carbon nanotube transducer to activate, wherein the signal causes the carbon nanotube transducer to generate an anti-sound that interferes with a sound generated by a rotation of the propeller blade. a carbon nanotube transducer is formed in a mesh material and positioned over at least a portion of at least one of an entrance or an exit of the propeller duct; and a sound controller is in communication with the carbon nanotube transducer, the sound controller configured to provide a signal to the carbon nanotube transducer to cause the carbon nanotube transducer to activate, wherein the signal causes the carbon nanotube transducer to generate an anti-sound that interferes with a sound generated by a rotation of the propeller blade.