mhurhangee/ep-ind-claims huggingface dataset:
Modular directional valve device, fitted with one or more elements (E1, E2,.. En), said valve device being suitable for controlling a variable displacement pump, said one or more elements (E1...En) being of the crossing type allowing connection of the variable displacement pump and of a tank to various utilities through respective uses (A1, B1, A2, B2); said valve device comprising at least one delivery line and said valve device being arranged for the connection to the pump through said at least one delivery line and further comprising at least one load line for connecting said at least one delivery line to the utilities, said at least one load line passing through respective spool of said one or more elements (E1, E2,.. En), said at least one load line connecting said respective spool in parallel, a fitting for the connection of the tank to a low pressure line of the modular directional valve device into which the return flow rates of utilities flow, a choke arranged on a bypass line of the modular directional valve device downstream of a last element (En) of said one or more elements (E1, E2,.. En), said valve device further comprising a connection line for connection, direct or indirect, to a control signal line of the pump, said connection line being adapted to draw the control signal on the bypass line between a last element (En) of the one or more elements and the choke, wherein a pressure regulator is provided only in the bypass line and upstream of the first element of said one or more elements (E1, E2,.. En), the regulator being configured so as to impose a constant pressure drop along the bypass line and through said one or more elements (E1, E2,.. En), the valve device being characterized in that said load line is connected to said bypass line upstream said pressure regulator.
A method of densifying a powder or a mixture of powders of polyarylene-ether-ketone (PAEK), characterised in that it consists in mixing the powder or mixture of powders in a mixer equipped with a rotary agitator comprising at least one blade, for a time of between 30 minutes and 120 minutes, preferably between 30 and 60 minutes, at a blade-end speed of between 30 m/s and 70 m/s, preferably between 40 and 50 m/s; and in that during the mixing, the temperature of the powder increases up to a temperature lower than the lowest glass transition temperature among the PAEK's.
A passive inhalation device, particularly an inhalation device for pharmaceutical substances, smokeless cold cigarette, cigar, or pipe, for delivering at least one volatile substance transitioning at least partially into the gaseous phase at room temperature, the heating required for releasing the volatile substance occurring substantially passively by the body temperature of the user, having a flow channel extending through a base body of the inhalation device (10; 50), through which the user draws air during use, a depot disposed in the flow channel, in which the at least one volatile substance is stored until released, and a heat transfer element contacting the depot at least in segments for transferring heat, said element transferring the body heat of the user to the depot during use for releasing the substance stored in the depot, so that the volatile substance released from the depot disperses into the air drawn in by the user through the flow channel, characterized in that the base body comprises two sleeves (16; 52) forming the flow channel (42; 56) in segments, wherein the depot is disposed between the end faces thereof facing toward each other, that the heat transfer element implemented as part of the base body is a heat transfer sleeve bounding a further segment of the flow channel (42; 56), in which the depot is held, and that the heat transfer sleeve connects the two sleeves (16; 52) rigidly to each other and is connected thereto in a gas-tight manner.
A method of estimating the amount of substrate vaporised by a heating element in an electronic cigarette during a smoking period, characterised in that it comprises: - a step of measuring an approximation (ΔU10 MES (t), U10 MES (t)) of a characteristic of the voltage (U10(t)) across the heating element during that smoking period, said approximation being measured across the terminals (B1, B2) of a circuit of which no component has intrinsic characteristics disturbed by the inhalations; - a step of estimating an approximation (ΔU10 TH (t), U10 TH (t)) of said characteristic of the voltage (U10(t)) across the heating element in the absence of inhalation during said smoking period; - a step of calculating an intensity of inhalations during said smoking period from an integration of the difference between said approximations during said smoking period; and - a step of estimating said amount of substrate vaporised by the heating element at least from said intensity; method in which the characteristic of said voltage (U10(t)) at a given instant is, optionally, a variation (ΔU10(t)) of said voltage at that instant or, optionally, the voltage measured across a measuring resistor connected in series with said heating element. - a step of measuring an approximation (ΔU10 MES (t), U10 MES (t)) of a characteristic of the voltage (U10(t)) across the heating element during that smoking period, said approximation being measured across the terminals (B1, B2) of a circuit of which no component has intrinsic characteristics disturbed by the inhalations; - a step of estimating an approximation (ΔU10 TH (t), U10 TH (t)) of said characteristic of the voltage (U10(t)) across the heating element in the absence of inhalation during said smoking period; - a step of calculating an intensity of inhalations during said smoking period from an integration of the difference between said approximations during said smoking period; and - a step of estimating said amount of substrate vaporised by the heating element at least from said intensity;
Method for carrying out firing practice, comprising a step of launching a target into a portion of space, a step of firing a projectile towards the target and a step of impact of the projectile on the target, characterized in that use is made of a projectile comprising a shell delimiting an internal volume containing a marking material and in that it involves a step of rupturing the shell upon impact of the projectile with the target, thereby releasing the marking material.
A consuming device comprising: a processor including: secure session logic to: initiate a secure communication session with a cloud cryptographic service, CCS; and then: receive, from the CCS, security attestation as to the integrity of a trusted execution environment, TEE, within the CCS and of code running within the TEE; and then: send security attestation to the CCS, so as to enable the CCS to assign a security level to the consuming device; and then: provide to the CCS, via the secure communication session, a request to decrypt an encrypted symmetric key that is encrypted via a private key, the encrypted symmetric key, and an encrypted private key including the private key that is encrypted with the public key of the CCS, so as to enable the CCS to decrypt the private key received from the consuming device, and decrypt the symmetric key received from the consuming device with the decrypted private key; and then: receive, from the CCS, the decrypted symmetric key responsive to the request to decrypt the encrypted symmetric key; decryption logic to decrypt, using the decrypted symmetric key received from the CCS, an encrypted data file to produce an unencrypted data file; and a dynamic random access memory (DRAM). a processor including: secure session logic to: initiate a secure communication session with a cloud cryptographic service, CCS; and then: receive, from the CCS, security attestation as to the integrity of a trusted execution environment, TEE, within the CCS and of code running within the TEE; and then: send security attestation to the CCS, so as to enable the CCS to assign a security level to the consuming device; and then: provide to the CCS, via the secure communication session, a request to decrypt an encrypted symmetric key that is encrypted via a private key, the encrypted symmetric key, and an encrypted private key including the private key that is encrypted with the public key of the CCS, so as to enable the CCS to decrypt the private key received from the consuming device, and decrypt the symmetric key received from the consuming device with the decrypted private key; and then: receive, from the CCS, the decrypted symmetric key responsive to the request to decrypt the encrypted symmetric key; provide to the CCS, via the secure communication session, a request to decrypt an encrypted symmetric key that is encrypted via a private key, the encrypted symmetric key, and an encrypted private key including the private key that is encrypted with the public key of the CCS, so as to enable the CCS to decrypt the private key received from the consuming device, and decrypt the symmetric key received from the consuming device with the decrypted private key; and then: receive, from the CCS, the decrypted symmetric key responsive to the request to decrypt the encrypted symmetric key; decryption logic to decrypt, using the decrypted symmetric key received from the CCS, an encrypted data file to produce an unencrypted data file; and a dynamic random access memory (DRAM).
A method of radio transmission of a data word between a transmitter and a receiver, comprising the steps of: transmitting at least one data block comprising a preamble word known by the receiver and stored therein, followed by a data word identically repeated a plurality of times, the identical words being directly transmitted the one after the others without intercalary transmission of any other data words; detecting the preamble word; synchronizing in frequency and in phase the receiver to the transmitter during the reception of the preamble word; synchronously averaging the repeated data word; and detecting the transmitted data based on the synchronous averaging; wherein the synchronous averaging step comprises the steps of: receiving a data word repeated a plurality of times; storing each of the bits of the first received data word into a storage register; adding the value of each box of the storage register to each bit of the next data words; and dividing the value of each box of the register by the number of repetitions of the data word. transmitting at least one data block comprising a preamble word known by the receiver and stored therein, followed by a data word identically repeated a plurality of times, the identical words being directly transmitted the one after the others without intercalary transmission of any other data words; detecting the preamble word; synchronizing in frequency and in phase the receiver to the transmitter during the reception of the preamble word; synchronously averaging the repeated data word; and detecting the transmitted data based on the synchronous averaging; wherein the synchronous averaging step comprises the steps of: receiving a data word repeated a plurality of times; storing each of the bits of the first received data word into a storage register; adding the value of each box of the storage register to each bit of the next data words; and dividing the value of each box of the register by the number of repetitions of the data word. receiving a data word repeated a plurality of times; storing each of the bits of the first received data word into a storage register; adding the value of each box of the storage register to each bit of the next data words; and dividing the value of each box of the register by the number of repetitions of the data word.
A composition for use in a method of treating a mammalian subject for human immunodeficiency virus infection, the method comprising: administering to the subject an anti-CD47 agent that reduces the binding of CD47 on an infected cell to SIRPα on a phagocytic cell, at an effective dose for increasing the phagocytosis of the infected cell, wherein the anti-CD47 agent is: (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, or (c) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα. administering to the subject an anti-CD47 agent that reduces the binding of CD47 on an infected cell to SIRPα on a phagocytic cell, at an effective dose for increasing the phagocytosis of the infected cell, wherein the anti-CD47 agent is: (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, or (c) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα. (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, or (c) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα.
A gas turbine having a compressor, in which air is compressible; a burner comprising at least one combustion chamber, to which the air compressed in the compressor is feedable and in which in the presence of the compressed air a fuel, subject to the heating of the air, is combustible; a turbine, in which the heated air is expandable; a diffuser which seen in the flow direction of the expanded air is arranged downstream of the turbine; multiple temperature sensors, as a function of the measurement values of which a thermodynamic mean temperature or a mixed turbine outlet temperate of the expanded air is determinable; characterized in that the temperature sensors seen in the flow direction of the expanded air are arranged on a downstream side of a diffuser cover, which at an outlet end of the diffuser closes off a hollow space of the same that is positioned radially inside of a flow passage of the diffuser. a compressor, in which air is compressible; a burner comprising at least one combustion chamber, to which the air compressed in the compressor is feedable and in which in the presence of the compressed air a fuel, subject to the heating of the air, is combustible; a turbine, in which the heated air is expandable; a diffuser which seen in the flow direction of the expanded air is arranged downstream of the turbine; multiple temperature sensors, as a function of the measurement values of which a thermodynamic mean temperature or a mixed turbine outlet temperate of the expanded air is determinable; characterized in that the temperature sensors seen in the flow direction of the expanded air are arranged on a downstream side of a diffuser cover, which at an outlet end of the diffuser closes off a hollow space of the same that is positioned radially inside of a flow passage of the diffuser.
An arrangement for feeding fine-grained matter to a concentrate or matte burner of a suspension smelting furnace, wherein the arrangement includes a screw conveyor comprising a tube means having a circumferential inner surface, an inlet opening for feeding fine-grained matter into the tube means, an downward-facing outlet opening in the circumferential inner surface of the tube means for discharging fine-grained matter from the tube means, and a helical screw arranged around a shaft for moving fine-grained matter in the tube means from the inlet opening to the downward-facing outlet opening by rotating the helical screw, characterized by the downward-facing outlet opening of the tube means of the screw conveyor being provided with a fine-grained matter distribution means, by the fine-grained matter distribution means having a free end configured for feeding fine-grained matter into the downward-facing outlet opening, and by the helical screw of the screw conveyor extending from the direction of the inlet opening at least partly over the downward-facing outlet opening.
Discharge device for discharging condensed water for roof vents consisting of a ring for mounting on the inside of a roof vent pipe, including a first substantially round annular section with a first diameter 01, a middle inclination section joining the first annular section in axial direction, and a second annular section joining the inclination section in axial direction with a second diameter D2, wherein the second diameter D2 is smaller than the first diameter D1, characterized in that the middle inclination section has an inclination transversely to the longitudinal axis of the ring and additionally has an inclination in radial direction of the ring, wherein both inclinations are different.
A gas turbine engine comprising: a fan section; a shaft including a bearing system; a turbine section in communication with the shaft; a speed change mechanism coupling the fan section to the turbine section; and a biasing device (60, 80) configured to apply a biasing force against the shaft; characterized in that the biasing device (60, 80) includes an actuator (62, 82), and in that the gas turbine engine further comprises a rotating bearing assembly (64, 84) configured to allow the actuator (62, 82) to remain stationary while applying a compressive force to the shaft. a fan section; a shaft including a bearing system; a turbine section in communication with the shaft; a speed change mechanism coupling the fan section to the turbine section; and a biasing device (60, 80) configured to apply a biasing force against the shaft; characterized in that the biasing device (60, 80) includes an actuator (62, 82), and in that the gas turbine engine further comprises a rotating bearing assembly (64, 84) configured to allow the actuator (62, 82) to remain stationary while applying a compressive force to the shaft.
A torque measurement device comprising: A stator including a space portion formed by a first annular ring and a second annular ring having protrusion pieces (112, 122); a ring-shaped magnet disposed in the space portion; and a collector assembly including a first collector member and a second collector member to form at least one insertion space in which a magnetic element is configured to disposed, wherein the insertion space is defined by an end of the first collector member and an end of the second collector member extended toward the space portion, characterized in that the first collector member and the second collector member comprise: flux transfer surfaces (311, 321) disposed near the first or second annular ring; opposite surfaces (312, 322) connected to the flux transfer surfaces (311, 321) and bent in a direction facing each other; and insertion surfaces (313, 323) connected to the opposite surfaces (312, 322) and bent toward the space portion between the first annular ring and second annular ring configured to dispose the magnetic element therein. A stator including a space portion formed by a first annular ring and a second annular ring having protrusion pieces (112, 122); a ring-shaped magnet disposed in the space portion; and a collector assembly including a first collector member and a second collector member to form at least one insertion space in which a magnetic element is configured to disposed, wherein the insertion space is defined by an end of the first collector member and an end of the second collector member extended toward the space portion, characterized in that the first collector member and the second collector member comprise: flux transfer surfaces (311, 321) disposed near the first or second annular ring; opposite surfaces (312, 322) connected to the flux transfer surfaces (311, 321) and bent in a direction facing each other; and insertion surfaces (313, 323) connected to the opposite surfaces (312, 322) and bent toward the space portion between the first annular ring and second annular ring configured to dispose the magnetic element therein. flux transfer surfaces (311, 321) disposed near the first or second annular ring; opposite surfaces (312, 322) connected to the flux transfer surfaces (311, 321) and bent in a direction facing each other; and insertion surfaces (313, 323) connected to the opposite surfaces (312, 322) and bent toward the space portion between the first annular ring and second annular ring configured to dispose the magnetic element therein.
A rare earth permanent magnetic material comprising: a main phase represented by R1 x1 R2 y1 Fe 1-x1-y1-z1-u1 Co z1 B u1, wherein R1 is at least one element selected from Pr and Nd; R2 is at least one element selected from Dy, Tb and Ho; x1, y1, z1 and u1 are weight percentages, 26%≤x1+y1≤34%, 0.01%≤y1≤4%, 0≤z1≤6%, and 0.78%≤u1≤1.25%; and an auxiliary phase separated from or cladding the main phase, comprising a first auxiliary phase and a second auxiliary phase, wherein the first auxiliary phase is represented by R3 x2 R4 y2 Fe 1-x2-y2-z2-u2-v1 Co z2 B u2 M v1, where R3 is at least one element selected from Pr and Nd; R4 is at least one element selected from Dy, Tb and Ho; M is at least one element selected from Zr, Ga, Cu, Nb, Sn, Mo, Al, V, W, Si, Hf, Ti, Zn, Bi, Ta and In; x2, y2, z2, u2 and v1 are weight percentages, 35%≤x2+y2≤82%, 5%≤y2≤42%, 0≤z2≤40%, 0≤u2≤1.25%, and 0≤v1≤10%; and the second auxiliary phase is represented by R5 x3 R6 y3 Fe 1-x3-y3-z3-u3-v2 Co z3 B u3 M v2, where R5 is at least one element selected from Pr and Nd; R6 is at least one element selected from Dy, Tb and Ho; M is at least one element selected from Zr, Ga, Cu, Nb, Sn, Mo, Al, V, W, Si, Hf, Ti, Zn, Bi, Ta and In; x3, y3, z3, u3 and v2 are weight percentages, 10%≤x3+y3≤32%, 0≤y3≤4.8%, 0≤z3≤40%, 0≤u3≤1.25%, and 31%≤v2≤50%, wherein based on the total weight of the main phase and the auxiliary phase, the content of the first auxiliary C1 satisfies: 0<C1≤25wt%, and wherein based on the total weight of the main phase and the auxiliary phase, the content of the second auxiliary C2 satisfies: 0<C2≤20wt%. a main phase represented by R1 x1 R2 y1 Fe 1-x1-y1-z1-u1 Co z1 B u1, wherein R1 is at least one element selected from Pr and Nd; R2 is at least one element selected from Dy, Tb and Ho; x1, y1, z1 and u1 are weight percentages, 26%≤x1+y1≤34%, 0.01%≤y1≤4%, 0≤z1≤6%, and 0.78%≤u1≤1.25%; and an auxiliary phase separated from or cladding the main phase, comprising a first auxiliary phase and a second auxiliary phase, wherein the first auxiliary phase is represented by R3 x2 R4 y2 Fe 1-x2-y2-z2-u2-v1 Co z2 B u2 M v1, where R3 is at least one element selected from Pr and Nd; R4 is at least one element selected from Dy, Tb and Ho; M is at least one element selected from Zr, Ga, Cu, Nb, Sn, Mo, Al, V, W, Si, Hf, Ti, Zn, Bi, Ta and In; x2, y2, z2, u2 and v1 are weight percentages, 35%≤x2+y2≤82%, 5%≤y2≤42%, 0≤z2≤40%, 0≤u2≤1.25%, and 0≤v1≤10%; and the second auxiliary phase is represented by R5 x3 R6 y3 Fe 1-x3-y3-z3-u3-v2 Co z3 B u3 M v2, where R5 is at least one element selected from Pr and Nd; R6 is at least one element selected from Dy, Tb and Ho; M is at least one element selected from Zr, Ga, Cu, Nb, Sn, Mo, Al, V, W, Si, Hf, Ti, Zn, Bi, Ta and In; x3, y3, z3, u3 and v2 are weight percentages, 10%≤x3+y3≤32%, 0≤y3≤4.8%, 0≤z3≤40%, 0≤u3≤1.25%, and 31%≤v2≤50%, wherein based on the total weight of the main phase and the auxiliary phase, the content of the first auxiliary C1 satisfies: 0<C1≤25wt%, and wherein based on the total weight of the main phase and the auxiliary phase, the content of the second auxiliary C2 satisfies: 0<C2≤20wt%.