mhurhangee/ep-ind-claims huggingface dataset:
A scheduling method, applied to a communications system, wherein the method comprises: sending, by a base station, downlink control information, DCI, to a first-type terminal, wherein the DCI comprises scheduling information used to instruct the first-type terminal to send uplink data by using a first-mode frame format, wherein the communication system uses a normal cyclic prefix in uplink, the first-mode frame format comprises at least two uplink subframes, and each of the at least two uplink subframes comprises seven first-mode frame format symbols; the method being characterized in that: a duration of the seven first-mode frame format symbols is equal to a duration of 28 second-mode frame format symbols in a second-mode frame format and equal to 2 milliseconds; receiving, by the base station, an uplink demodulation reference signal on three first-mode frame format symbols of the seven first-mode frame format symbols in the two uplink subframes. sending, by a base station, downlink control information, DCI, to a first-type terminal, wherein the DCI comprises scheduling information used to instruct the first-type terminal to send uplink data by using a first-mode frame format, wherein the communication system uses a normal cyclic prefix in uplink, the first-mode frame format comprises at least two uplink subframes, and each of the at least two uplink subframes comprises seven first-mode frame format symbols; the method being characterized in that: a duration of the seven first-mode frame format symbols is equal to a duration of 28 second-mode frame format symbols in a second-mode frame format and equal to 2 milliseconds; receiving, by the base station, an uplink demodulation reference signal on three first-mode frame format symbols of the seven first-mode frame format symbols in the two uplink subframes. a duration of the seven first-mode frame format symbols is equal to a duration of 28 second-mode frame format symbols in a second-mode frame format and equal to 2 milliseconds; receiving, by the base station, an uplink demodulation reference signal on three first-mode frame format symbols of the seven first-mode frame format symbols in the two uplink subframes.
A microelectromechanical system MEMS, system, comprising: a gyroscope including a first proof mass, wherein the gyroscope is configured to output a quadrature signal and an angular velocity signal based on a movement of the first proof mass; an accelerometer including a second proof mass, wherein the accelerometer is configured to output a linear acceleration signal based on a movement of the second proof mass in response to a linear acceleration; and processing circuitry coupled to the gyroscope and the accelerometer to receive the quadrature signal and the linear acceleration signal, wherein the processing circuitry is configured to modify the linear acceleration signal based on the quadrature signal. a gyroscope including a first proof mass, wherein the gyroscope is configured to output a quadrature signal and an angular velocity signal based on a movement of the first proof mass; an accelerometer including a second proof mass, wherein the accelerometer is configured to output a linear acceleration signal based on a movement of the second proof mass in response to a linear acceleration; and processing circuitry coupled to the gyroscope and the accelerometer to receive the quadrature signal and the linear acceleration signal, wherein the processing circuitry is configured to modify the linear acceleration signal based on the quadrature signal.
A method for measuring an electrical current (I M) with the aid of a field effect transistor inserted into a current path, comprising the steps of: - applying a control voltage (U gs) between the gate (g) and source (s) of the transistor in such a way that the voltage drop (U ds) between the drain (d) and source (s) at the transistor in the current path remains within a specifiable range, - determining said voltage drop (U ds), - determining the control voltage (U gs), - determining the value of the current of interest (I M) on the basis of said voltage drop (U ds), the control voltage (U gs), and a known relationship between the drain-source current (I ds), the drain-source voltage (U ds) and the gate-source voltage (U gs), characterized in that the control voltage (U gs) between the gate (g) and the source (s) of the transistor is held constant for as long as the voltage drop (U ds) between the drain (d) and the source (s) remains within the specifiable range, and the control voltage (U gs) is increased or decreased by a discrete amount if the voltage drop (U ds) between the drain (d) and the source (s) leaves the specifiable range. - applying a control voltage (U gs) between the gate (g) and source (s) of the transistor in such a way that the voltage drop (U ds) between the drain (d) and source (s) at the transistor in the current path remains within a specifiable range, - determining said voltage drop (U ds), - determining the control voltage (U gs), - determining the value of the current of interest (I M) on the basis of said voltage drop (U ds), the control voltage (U gs), and a known relationship between the drain-source current (I ds), the drain-source voltage (U ds) and the gate-source voltage (U gs), characterized in that the control voltage (U gs) between the gate (g) and the source (s) of the transistor is held constant for as long as the voltage drop (U ds) between the drain (d) and the source (s) remains within the specifiable range, and the control voltage (U gs) is increased or decreased by a discrete amount if the voltage drop (U ds) between the drain (d) and the source (s) leaves the specifiable range.
An arrangement for reducing resistance to the advance of a vessel during its navigation, comprising: - at least one rotating body of revolution (1,8) attached to said vessel by support and draft control means associated with its longitudinal rotation axis which is arranged perpendicular to the direction of advance of said vessel, and associated with driving means, said at least one rotating body of revolution (1,8) located in front of the bow or behind the stern of said vessel, - the rotation of said at least one rotating body of revolution (1,8) is synchronized with the forward speed of said vessel, wherein the rotating body of revolution (1,8) closest to the hull of said vessel is separated from said hull of said vessel by a clearance of approximately 5% or less of its maximum diameter; characterized in that - said support and draft control means are forks associated with pistons and maintain said rotating body of revolution (1,8) submerged in the order of 30% of its maximum diameter during navigation; - said driving means rotatably impel said rotating body of revolution (1,8), said driving means being engines, and being associated to said longitudinal rotation axis of said at least one rotating body of revolution by transmission means. - at least one rotating body of revolution (1,8) attached to said vessel by support and draft control means associated with its longitudinal rotation axis which is arranged perpendicular to the direction of advance of said vessel, and associated with driving means, said at least one rotating body of revolution (1,8) located in front of the bow or behind the stern of said vessel, - the rotation of said at least one rotating body of revolution (1,8) is synchronized with the forward speed of said vessel, wherein the rotating body of revolution (1,8) closest to the hull of said vessel is separated from said hull of said vessel by a clearance of approximately 5% or less of its maximum diameter; characterized in that - said support and draft control means are forks associated with pistons and maintain said rotating body of revolution (1,8) submerged in the order of 30% of its maximum diameter during navigation; - said driving means rotatably impel said rotating body of revolution (1,8), said driving means being engines, and being associated to said longitudinal rotation axis of said at least one rotating body of revolution by transmission means.
An automatic transmission apparatus comprising: a multi-speed type transmission mechanism, having a plurality of transmission gears (49,420) to engage with each other via a dog clutch and changing a combination of the engaging transmission gears (49,420) in association with rotation of a shift drum; an electric actuator for rotating the shift drum; and a control device for controlling the actuator by applying a voltage thereto, wherein the control device has a braking control unit for executing a control process at the time of a gear shifting operation of releasing a pair of transmission gears (49,420) from engagement with each other and causing another pair of transmission gears (49,420) to engage with each other, the control process including applying one of positive and negative voltages to the actuator to release the pair of transmission gears (49,420) from engagement with each other, characterised by that thereafter applying the other one of the positive and negative voltages to the actuator before the other pair of transmission gears (49,420) finish engaging with each other. a multi-speed type transmission mechanism, having a plurality of transmission gears (49,420) to engage with each other via a dog clutch and changing a combination of the engaging transmission gears (49,420) in association with rotation of a shift drum; an electric actuator for rotating the shift drum; and a control device for controlling the actuator by applying a voltage thereto, wherein the control device has a braking control unit for executing a control process at the time of a gear shifting operation of releasing a pair of transmission gears (49,420) from engagement with each other and causing another pair of transmission gears (49,420) to engage with each other, the control process including applying one of positive and negative voltages to the actuator to release the pair of transmission gears (49,420) from engagement with each other, characterised by that thereafter applying the other one of the positive and negative voltages to the actuator before the other pair of transmission gears (49,420) finish engaging with each other.
A waveguide fabrication method, comprising: positioning a substrate on a pedestal in a process volume of a chamber; positioning the pedestal opposite a segmented surface of an electrode, the segmented surface comprising a plurality of angled surfaces; and projecting electrons from the segmented surface of the electrode toward the substrate at one or more non-normal angles to form angled fins on the substrate. positioning a substrate on a pedestal in a process volume of a chamber; positioning the pedestal opposite a segmented surface of an electrode, the segmented surface comprising a plurality of angled surfaces; and projecting electrons from the segmented surface of the electrode toward the substrate at one or more non-normal angles to form angled fins on the substrate.
A process for producing hydrogen, comprising the steps of: gasifying a fuel into a raw synthesis gas comprising CO, hydrogen, steam and sulfur and halide contaminants in the form of H 2 S, COS and HX, where X is a halide; injecting said raw synthesis gas, CaO and steam into a water gas shift reactor, WGSR, wherein the steam is injected into said WGSR in the range of from the stoichiometric requirement to 3 times the stoichiometric requirement, wherein said raw synthesis gas transforms into a shifted gas without a catalyst; allowing said shifted gas to react with said CaO in said WGSR so as to remove CO 2, sulfur and halides in a solid-phase calcium-containing product comprising CaCO 3, CaS and CaX 2; separating the solid-phase calcium-containing product from an enriched gaseous hydrogen product; and regenerating the CaO by calcining the solid-phase calcium-containing product at a condition selected from the group consisting of: in the presence of steam, in the presence of CO 2, in the presence of synthesis gas, in the presence of H 2 and O 2, under partial vacuum, and combinations thereof. gasifying a fuel into a raw synthesis gas comprising CO, hydrogen, steam and sulfur and halide contaminants in the form of H 2 S, COS and HX, where X is a halide; injecting said raw synthesis gas, CaO and steam into a water gas shift reactor, WGSR, wherein the steam is injected into said WGSR in the range of from the stoichiometric requirement to 3 times the stoichiometric requirement, wherein said raw synthesis gas transforms into a shifted gas without a catalyst; allowing said shifted gas to react with said CaO in said WGSR so as to remove CO 2, sulfur and halides in a solid-phase calcium-containing product comprising CaCO 3, CaS and CaX 2; separating the solid-phase calcium-containing product from an enriched gaseous hydrogen product; and regenerating the CaO by calcining the solid-phase calcium-containing product at a condition selected from the group consisting of: in the presence of steam, in the presence of CO 2, in the presence of synthesis gas, in the presence of H 2 and O 2, under partial vacuum, and combinations thereof.
A climbing screen support system comprising: a support rail fixable to a surface adjacent an edge of a construction; a mounting arm slidably securable to the rail so as to confine movement of the mounting arm in a linear direction along the support rail; and a climbing shoe attachable to an end of the mounting arm, characterised in that the support system is configured such that the mounting arm may be securely mounted to the support rail remote from the edge of the construction, with at least two brackets (8A, 8B) to slidably secure the mounting arm to the support rail, with no part of the climbing screen support system protruding beyond the edge of the construction, and subsequently slideable along the support rail into deployment such that the climbing shoe protrudes from the edge of the construction by a predetermined distance. a support rail fixable to a surface adjacent an edge of a construction; a mounting arm slidably securable to the rail so as to confine movement of the mounting arm in a linear direction along the support rail; and a climbing shoe attachable to an end of the mounting arm, characterised in that the support system is configured such that the mounting arm may be securely mounted to the support rail remote from the edge of the construction, with at least two brackets (8A, 8B) to slidably secure the mounting arm to the support rail, with no part of the climbing screen support system protruding beyond the edge of the construction, and subsequently slideable along the support rail into deployment such that the climbing shoe protrudes from the edge of the construction by a predetermined distance.
A motorcycle comprising: a vehicle body frame; an engine supported by the vehicle body frame and including intake-side and exhaust-side variable valve timing devices; and an oil control valve unit configured to control a hydraulic pressure to the intake-side and exhaust-side variable valve timing devices of the engine, the oil control valve unit comprising: an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve, wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine, extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing. a vehicle body frame; an engine supported by the vehicle body frame and including intake-side and exhaust-side variable valve timing devices; and an oil control valve unit configured to control a hydraulic pressure to the intake-side and exhaust-side variable valve timing devices of the engine, the oil control valve unit comprising: an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve, wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine, extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing. an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve, wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine, extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing.
An implantable device for the preventive or curative treatment of the coxofemoral joint comprising the femur with its long bone and its cortical wall, defining a longitudinal axis XX', a femoral head, a neck of the femur and a longitudinal axis secant with the longitudinal axis XX' forming an angle α, comprising: - a first implant, the axis YY' of which is designed to be arranged substantially along said longitudinal axis of said neck, with a non-emerging distal end Y and a proximal end Y' emerging through the cortical wall, - a second implant, the axis ZZ' of which is designed to be secant with the axis YY' of said first implant at a point of intersection S close to its distal end Z and designed to be secant with the longitudinal axis XX' of the femur, the proximal end Z' passing through the cortical wall of said femur, and - a fixed connection of the implants and at point S, characterised in that the proximal end Z' of the second implant is situated at a distance further from the coxofemoral joint than the emerging proximal end Y' of the first implant. - a first implant, the axis YY' of which is designed to be arranged substantially along said longitudinal axis of said neck, with a non-emerging distal end Y and a proximal end Y' emerging through the cortical wall, - a second implant, the axis ZZ' of which is designed to be secant with the axis YY' of said first implant at a point of intersection S close to its distal end Z and designed to be secant with the longitudinal axis XX' of the femur, the proximal end Z' passing through the cortical wall of said femur, and - a fixed connection of the implants and at point S, characterised in that the proximal end Z' of the second implant is situated at a distance further from the coxofemoral joint than the emerging proximal end Y' of the first implant.
A dental prosthesis support device characterised in that it comprises: - a support strip (101, 201) secured to a dental prosthesis; - connectors (103, 203) designed, when in use, to be attached to teeth (102, 202) of a patient that enclose a dental free space and on which the support strip (101, 201) detachably engages so that the dental prosthesis fills said space; - the support strip (101, 201) is profiled so as to cover only the lingual surface (102b, 202b) of said teeth leaving the other surfaces of said teeth free; - the connectors (103, 203) are configured to be attached against the lingual surface (102b, 202b) of said teeth; - the support strip (101, 201) comprises pockets (1013, 2013) into which the connectors (103, 203) fit elastically. - a support strip (101, 201) secured to a dental prosthesis; - connectors (103, 203) designed, when in use, to be attached to teeth (102, 202) of a patient that enclose a dental free space and on which the support strip (101, 201) detachably engages so that the dental prosthesis fills said space; - the support strip (101, 201) is profiled so as to cover only the lingual surface (102b, 202b) of said teeth leaving the other surfaces of said teeth free; - the connectors (103, 203) are configured to be attached against the lingual surface (102b, 202b) of said teeth; - the support strip (101, 201) comprises pockets (1013, 2013) into which the connectors (103, 203) fit elastically.
Battery cell comprising two electrodes and a battery cell housing, characterized in that one of the two electrodes is electrically conductively connected to the battery cell housing by means of a predetermined breaking point, and the component which forms the predetermined breaking point is prestressed in such a way that, when the predetermined breaking point breaks, a gap forms between the edges of the break of the predetermined breaking point, which are formed in the process, owing to the elastic resilience of the prestressed component.
A control method for controlling a spin system, the control method comprising: accessing a spin system model that represents a spin system, the spin system comprising spins that respond to a control signal generated by a resonator circuit in a control system, the spin system model comprising a control parameter representing the control signal, the resonator circuit configured to generate the control signal in response to a voltage signal received by the control system; accessing an uncertainty model representing uncertainty in a parameter of the resonator circuit; accessing a distortion model that represents a non-linear relationship between the control signal and the voltage signal; defining a target operation to be applied to one or more of the spins by operation of the resonator circuit; generating, by operation of a computing system, a pulse sequence comprising a sequence of values for the voltage signal, the pulse sequence generated based on the target operation, the spin system model, the distortion model, and the uncertainty model; and applying the pulse sequence to the spin system by operation of the resonator circuit. accessing a spin system model that represents a spin system, the spin system comprising spins that respond to a control signal generated by a resonator circuit in a control system, the spin system model comprising a control parameter representing the control signal, the resonator circuit configured to generate the control signal in response to a voltage signal received by the control system; accessing an uncertainty model representing uncertainty in a parameter of the resonator circuit; accessing a distortion model that represents a non-linear relationship between the control signal and the voltage signal; defining a target operation to be applied to one or more of the spins by operation of the resonator circuit; generating, by operation of a computing system, a pulse sequence comprising a sequence of values for the voltage signal, the pulse sequence generated based on the target operation, the spin system model, the distortion model, and the uncertainty model; and applying the pulse sequence to the spin system by operation of the resonator circuit.
A breakable connection for sealing a tube connected to a bag or container with a medicinal solution until use, consisting of a breakable stopper with a hollow lower part open at its end and corresponding in cross section to the inner tube cross section, and on the end of the lower part an outer thread is formed, whereby the lower part comprises a collar formed thereupon, and an upper part with a smaller cross-section, connected in one piece with the lower part via a break point, whereby the opening of the lower part is covered by a removable sealing cap extended over the end of the lower part, whereby the sealing cap comprises a break point in the circumferential wall, characterized in that the inner diameter of the sealing cap is greater than the outer diameter of the outer thread of the breakable stopper and in its upper region the sealing cap is materially, sealingly connected all around a front and/or circumferential side with the collar through adhering or welding and the break point is formed axially thereunder in the circumferential wall.