mhurhangee/ep-ind-claims huggingface dataset:
Tap serving for controlling the flow of a liquid from an internal region (Zint) of a container to an external region (Zext), said tap comprising: - a body which has a bore via which the internal and external regions (Zint, Zext) can communicate, - a stopper that is able to move in translation, in a movement direction, between a first position corresponding to the closed state of the tap, in which the stopper entirely shuts the bore, and a second position corresponding to the open state of the tap, in which the stopper at least partially frees the bore, said stopper having a first end (24.1) that is oriented towards the external region (Zext), - a cannula which extends between a first end (26.1) and a second end (26.2), said cannula having a pipe which communicates with the internal region (Zint) when the cannula is connected to the stopper and the stopper is in the second position, - a coupling system that is configured to connect the first ends (24.1, 26.1) of the stopper and of the cannula, comprising a male part (90.1) that is secured to one of the first ends (24.1, 26.1) of the stopper and of the cannula and a female part (90.2) that is secured to the other of the first ends (24.1, 26.1) of the stopper and of the cannula, characterized in that the male and female parts (90.1, 90.2) of the coupling system are configured to cooperate with one another and to allow the male and female parts (90.1, 90.2) to nest one in the other in a nesting direction that is perpendicular to the axis of the bore of the body, when the stopper is in the first position corresponding to the closed state, and to allow the male and female parts (90.1, 90.2) to be immobilized relative to one another in the movement direction when the male and female parts (90.1, 90.2) are coupled together. - a body which has a bore via which the internal and external regions (Zint, Zext) can communicate, - a stopper that is able to move in translation, in a movement direction, between a first position corresponding to the closed state of the tap, in which the stopper entirely shuts the bore, and a second position corresponding to the open state of the tap, in which the stopper at least partially frees the bore, said stopper having a first end (24.1) that is oriented towards the external region (Zext), - a cannula which extends between a first end (26.1) and a second end (26.2), said cannula having a pipe which communicates with the internal region (Zint) when the cannula is connected to the stopper and the stopper is in the second position, - a coupling system that is configured to connect the first ends (24.1, 26.1) of the stopper and of the cannula, comprising a male part (90.1) that is secured to one of the first ends (24.1, 26.1) of the stopper and of the cannula and a female part (90.2) that is secured to the other of the first ends (24.1, 26.1) of the stopper and of the cannula,
A data transmission method, comprising: determining a contention transmission unit, CTU, to be used by to-be-sent uplink data, wherein the CTU is a transmission resource comprising at least a time domain resource, a frequency domain resource, and a code domain resource; encoding the to-be-sent uplink data by using N different code element groups in the code domain resource corresponding to the determined CTU, to obtain N groups of encoded data, wherein N is a positive integer greater than or equal to 2; and sending the N groups of encoded data by using the time domain and frequency domain resources that are corresponding to the determined CTU; wherein each group of the N groups of encoded data comprises a control word and a data portion, wherein the control word is used to instruct a receive end whether to perform combined decoding on a corresponding data portion in the encoded data. determining a contention transmission unit, CTU, to be used by to-be-sent uplink data, wherein the CTU is a transmission resource comprising at least a time domain resource, a frequency domain resource, and a code domain resource; encoding the to-be-sent uplink data by using N different code element groups in the code domain resource corresponding to the determined CTU, to obtain N groups of encoded data, wherein N is a positive integer greater than or equal to 2; and sending the N groups of encoded data by using the time domain and frequency domain resources that are corresponding to the determined CTU; wherein each group of the N groups of encoded data comprises a control word and a data portion, wherein the control word is used to instruct a receive end whether to perform combined decoding on a corresponding data portion in the encoded data.
A vortex finder for a cyclonic separator, the vortex finder comprising: a plurality of stationary vanes around which incoming air is guided into the vortex finder, wherein a side of the vanes facing the incoming air is provided with a protrusion at a stagnation point.
Brake pedal arrangement (1; 1a; 1b) of a brake-steerable vehicle, in particular of an agricultural tractor, composed of a pedal assembly with a foot-operable step plate (7; 7a; 7b), by means of the actuation of which a brake valve (2; 2a) can be actuated, wherein the step plate (7; 7a; 7b) has a central plate region, which coincides with the longitudinal axis of the step plate and the width of which corresponds approximately to the width of a human foot, and two side plates (10, 11), which are arranged in each case to the side of the central plate region, wherein a pressure on in each case one side plate (10, 11; 10a, 11a; 10b, 11b) actuates in each case one electrical switch (17, 18; 21, 22; 21a; 22a), by means of the actuation of which the braking of a wheel (36; 37) of a vehicle axle can be effected in order to initiate a brake steering operation, wherein the side plates (10, 11; 10a, 11a; 10b, 11b) are in each case rigidly connected to the central plate region of the step plate, characterized in that the switch (17, 18; 21, 22; 21a; 22a) assigned to in each case one side plate (10, 11; 10a, 11a; 10b, 11b) is connected to the respective side plate (10, 11; 10a, 11a; 10b, 11b) such that a thrust piece (19; 19a; 20; 20a) of the respective switch (17, 18; 21, 22; 21a; 22a) is actuatable directly by the foot of the driver, wherein the switches (17, 18) are push switches (21, 22) which are recessed into the side plates (10, 11; 10b, 11b) and which each have a thrust piece (19, 20) which is in each case arranged so as to be directly actuatable by the foot of the driver, wherein the direction of the pressure with which the two thrust pieces (19, 20) are actuatable corresponds to the direction of the pressure of the foot of the driver on the central region of the step plate, or wherein the switches (17, 18) are push switches (21a, 22a) which are mounted onto the side plates (10a, 11a) of the step plate and which each have a thrust piece (19a, 20a) which is in each case arranged so as to be directly actuatable by the foot of the driver, wherein the direction of the pressure with which the two thrust pieces (19a, 20a) are actuatable runs transversely with respect to the pressure direction of the step plate, such that the thrust pieces (19a, 20a) are actuatable by means of the inside of the foot or by means of the outside of the foot of the foot of the driver.
A trigger unit comprising a support adapted to be mounted on the receiver of a firearm comprising a bolt and a firing pin that is inserted in said bolt, said support supporting the components of a trigger mechanism and of a safety system; said support comprising a plurality of seats adapted to accommodate one or more different functional components; said components of said trigger mechanism comprising a trigger, which is hinged to said support and has a protrusion adapted to interact with a lower protrusion of a safety tooth that is hinged to said support; said safety tooth having an upper end; said upper end being adapted to engage a selector, said upper end furthermore engaging a reducer that is hinged to said support; said reducer acting on a firing pin hook tooth; said firing pin hook tooth directly interacting with said firing pin of said firearm; said trigger unit being characterized in that said selector comprises a cylindrical body having an end that is integral with a drum, and a free end; said cylindrical body being inserted in said support and having a free end that is opposite to said end that is integral with said drum; said drum being shaped as the letter V, in the vertex of which one end of a spring-loaded selection rod is hinged; said safety selection rod providing a clear selection of said safety system from a safety position to a firing position of said firearm and vice versa; said cylindrical body safing the firearm and preventing a rotary movement of said safety tooth; said cylindrical body having a flattened region which, in said firing position of the firearm, allows the rotation of said safety tooth when said trigger is activated.
A system comprising a spent fuel pool of a Light Water Reactor, the system further comprising: a cooling pipe, with portions of the cooling pipe being positioned below an expected liquid level of the spent fuel pool; the cooling pipe configured to provide a flow of cooling water through the cooling pipe that is a higher pressure and cooler temperature than the spent fuel pool water; a single inlet pipe attached to the cooling pipe; a single outlet pipe attached to the cooling pipe; the inlet pipe and the outlet pipe extending beyond the confines of the spent fuel pool; characterized by a water source fluidly coupled to the inlet pipe, the water source being located at an elevation above the expected liquid level of the spent fuel pool, and a water discharge point fluidly coupled to the outlet pipe, the water discharge point located at an elevation below the spent fuel pool, whereby gravity draining of cooling water through the cooling pipe is thereby provided. a cooling pipe, with portions of the cooling pipe being positioned below an expected liquid level of the spent fuel pool; the cooling pipe configured to provide a flow of cooling water through the cooling pipe that is a higher pressure and cooler temperature than the spent fuel pool water; a single inlet pipe attached to the cooling pipe; a single outlet pipe attached to the cooling pipe; the inlet pipe and the outlet pipe extending beyond the confines of the spent fuel pool; characterized by a water source fluidly coupled to the inlet pipe, the water source being located at an elevation above the expected liquid level of the spent fuel pool, and a water discharge point fluidly coupled to the outlet pipe, the water discharge point located at an elevation below the spent fuel pool, whereby gravity draining of cooling water through the cooling pipe is thereby provided.
A permanent magnet rotor shaft assembly for an electrical machine, comprising a permanent magnet cylindrical core (101; 201) having a longitudinal axis, said cylindrical core (101; 201) being axially compressed by first and second end shafts (102A, 102B; 202A, 202B) and being radially compressed by a sleeve (104; 204) made of a non-magnetic high strength metal installed in interference fit fashion around said cylindrical core (101; 201) and the portions of said first and second end shafts (102A, 102B; 202A, 202B) adjacent to said cylindrical core (101; 201), characterized in that each (102A; 202A, 202B) of said first and second end shafts (102A, 102B; 202A, 202B) comprises, in its portion facing said cylindrical core (101; 201), a central shoulder head (103A; 203A, 203B) which cooperates with a respective one of mating central recesses (106A; 206A, 206B) provided in each of central portions of the front faces of said cylindrical core (101; 201) and said non-magnetic high strength metal is chosen among Inconel, Hastelloy, Ti-6%AI-6%V-2%Sn, Ti-2.5%Cu.
A method for restricting disclosure of information about a network device during a Remote Access, RA, service session in a home network, comprising: activating a virtual device by an RA service device; determining a device or service for which information is to be disclosed to an external network from among devices discovered by the RA service device and registering the determined device or service as an embedded device or service of the virtual device; dynamically generating a device description of the virtual device including the embedded device or service; generating a Uniform Resource Locator, URL, of the RA service device, from which the device description of the virtual device is acquired; opening the URL to a device of the other party which has remotely accessed the RA service device; and providing the device description of the virtual device upon receipt of a request for the device description of the virtual device through the URL. activating a virtual device by an RA service device; determining a device or service for which information is to be disclosed to an external network from among devices discovered by the RA service device and registering the determined device or service as an embedded device or service of the virtual device; dynamically generating a device description of the virtual device including the embedded device or service; generating a Uniform Resource Locator, URL, of the RA service device, from which the device description of the virtual device is acquired; opening the URL to a device of the other party which has remotely accessed the RA service device; and providing the device description of the virtual device upon receipt of a request for the device description of the virtual device through the URL.
An inductive power transfer system for coupling a power source to a load across an air gap, the system comprising a primary unit associated with a host platform and a secondary unit arranged to receive power transmitted inductively from the primary unit, wherein the primary unit includes: a phase detection circuit configured to detect phase changes in a signal in the primary unit indicative of changes in an operating condition within the secondary unit; a drive circuit configured to adjust the power level transmitted to the secondary unit depending on the detected phase, wherein the drive circuit comprises a primary inductor coil and a series resonant capacitor forming a resonant circuitry; and a primary switching frequency circuit comprising an internal clock and configured to alter a switching frequency of the internal clock; characterised in that the phase changes detected by the phase detection circuit are phase changes in a resonant signal of the resonant circuitry relative to a clock signal phase; and wherein the phase detection circuit is configured to measure the resonant signal phase by detecting the phase of a voltage waveform on the junction of the series resonant capacitor and primary inductor coil. a phase detection circuit configured to detect phase changes in a signal in the primary unit indicative of changes in an operating condition within the secondary unit; a drive circuit configured to adjust the power level transmitted to the secondary unit depending on the detected phase, wherein the drive circuit comprises a primary inductor coil and a series resonant capacitor forming a resonant circuitry; and a primary switching frequency circuit comprising an internal clock and configured to alter a switching frequency of the internal clock;
A method for making at least one contacting structure comprising a conducting area positioned on one face of a support, the method comprising steps consisting of: - removing a thickness a support face in order to release one end of a conducting element, said conducting element at least partially crossing the thickness of the support and including an end which is flush on said face or projects beyond from said face of the support, - forming on said face of the support, at least one area based on a dielectric material on said conducting element, - forming in said dielectric materials at least one first block of dielectric material including a first cavity provided with inclined walls relatively to a normal to the main plane of said support and a bottom revealing said conducting element (105a, 515), this step being at least achieved by applying an embossing mold (200, 300, 400) on said area of dielectric material, - filling said cavity with a conducting material so as to form a conducting area in the extension of said conducting element. - removing a thickness a support face in order to release one end of a conducting element, said conducting element at least partially crossing the thickness of the support and including an end which is flush on said face or projects beyond from said face of the support, - forming on said face of the support, at least one area based on a dielectric material on said conducting element, - forming in said dielectric materials at least one first block of dielectric material including a first cavity provided with inclined walls relatively to a normal to the main plane of said support and a bottom revealing said conducting element (105a, 515), this step being at least achieved by applying an embossing mold (200, 300, 400) on said area of dielectric material, - filling said cavity with a conducting material so as to form a conducting area in the extension of said conducting element.
A fluid impingement arrangement comprising - a supply manifold; and - an elongate array of nozzle exits each arranged as a Coanda surface having a restriction, each nozzle exit being coupled to the supply manifold and having the form of an elongate slot; characterised in that each elongate slot extends along the direction of the array and in that any given pair of adjacent nozzle exits has a respective common partition wall and a static pressure tapping is located on one side of the fluid impingement arrangement and cross-connects a respective region of each of the pair of adjacent nozzle exits at the restrictions thereof such that passive oscillation in fluid jets passing through the nozzle exits in a direction perpendicular to the direction of the array may be induced. - a supply manifold; and - an elongate array of nozzle exits each arranged as a Coanda surface having a restriction, each nozzle exit being coupled to the supply manifold and having the form of an elongate slot;
A continuous casting mold, the mold having a plurality of separate portions filled with a metal of low thermal conductivity that are formed by filling a metal having a thermal conductivity of 30% or less of that of copper into circular concave grooves having a diameter of 2 mm or more and 20 mm or less or quasi-circular concave grooves having an equivalent circle diameter of 2 mm or more and 20 mm or less which are formed in the region of the inner wall surface of the water-cooled copper mold from an arbitrary position higher than a meniscus to a position 20 mm or more lower than the meniscus, wherein the filling thickness of the metal in the portions filled with the metal of low thermal conductivity is equal to or less than the depth of the circular concave grooves or the quasi-circular concave grooves and satisfies the relationship with the diameter or equivalent circle diameter of the portions filled with the metal of low thermal conductivity expressed by expression below: 0.5 ≤ H ≤ d where H represents the filling thickness (mm) of the metal and d represents the diameter (mm) or equivalent circle diameter (mm) of the portions filled with the metal of low thermal conductivity in expression.
A capsule, comprising a hollow body made from a first plant material and designed to receive an infusible product made from a second plant material, the body having an opening sealed with a lid to contain the infusible product, characterized in that the capsule has at least one breakable protuberance protruding from the body opposite to the opening and punchable by a machine intended to infuse the infusible product.
A method for producing hydrogen from ammonia, comprising: pressurizing liquid ammonia; heating (and optionally vaporizing) the liquid ammonia by heat exchange with one or more hot fluids (12, 32) to produce heated ammonia; combusting a fuel (50, 52) in a furnace to heat a first set of catalyst-containing reactor tubes and to form a flue gas; supplying the heated ammonia to the first set of catalyst-containing reactor tubes to cause cracking of ammonia into a first cracked gas containing hydrogen gas, nitrogen gas and residual ammonia; and purifying the first cracked gas in a first PSA to produce a first hydrogen product gas and a first PSA tail gas; and supplying the first PSA tail gas, or a gas derived therefrom, as feed to a secondary cracking reactor comprising a catalyst to cause cracking of ammonia into a second cracked gas containing hydrogen gas and nitrogen gas; wherein the one or more hot fluids (12, 32) comprise the flue gas and/or the first cracked gas. pressurizing liquid ammonia; heating (and optionally vaporizing) the liquid ammonia by heat exchange with one or more hot fluids (12, 32) to produce heated ammonia; combusting a fuel (50, 52) in a furnace to heat a first set of catalyst-containing reactor tubes and to form a flue gas; supplying the heated ammonia to the first set of catalyst-containing reactor tubes to cause cracking of ammonia into a first cracked gas containing hydrogen gas, nitrogen gas and residual ammonia; and purifying the first cracked gas in a first PSA to produce a first hydrogen product gas and a first PSA tail gas; and supplying the first PSA tail gas, or a gas derived therefrom, as feed to a secondary cracking reactor comprising a catalyst to cause cracking of ammonia into a second cracked gas containing hydrogen gas and nitrogen gas; wherein the one or more hot fluids (12, 32) comprise the flue gas and/or the first cracked gas.
Apparatus for transporting at least one heated component, wherein the apparatus comprises at least the following components: - at least one framework, wherein the framework defines a transport plane into which the component can be transported, - a lifting device which is provided and configured to lift the component from the transport plane into a removal plane, wherein the lifting device viewed in a vertical direction is at least partially arranged below the transport plane, wherein the lifting device has at least one first contact unit with a first contact element and at least one second contact unit with a second contact element, wherein first and second contact element are provided and configured for contacting at least one partial area of at least one component underside, wherein the first contact unit and the second contact unit are mechanically connected to each other so that they can be raised synchronously with each other, wherein the second contact unit can be controlled independently of the first contact unit, such that the first contact element can be raised into a first plane and the second contact element can be raised into a second plane which differs from the first plane. - at least one framework, wherein the framework defines a transport plane into which the component can be transported, - a lifting device which is provided and configured to lift the component from the transport plane into a removal plane, wherein the lifting device viewed in a vertical direction is at least partially arranged below the transport plane,