mhurhangee/ep-ind-claims huggingface dataset:
A system for assisting a user in navigating a cardiac medical device in a cardiac region of a patient body, the system comprising: - a cardiac medical device, - a 3D model providing unit configured to provide a three-dimensional cardiac model of the cardiac region of the patient body, - an ultrasound probe for acquiring image signals of the cardiac region of the patient body and an ultrasound unit configured to provide live images of the cardiac region of the patient body on the basis of the image signals, - at least one ultrasound sensor attached to the cardiac medical device for sensing ultrasound signals emitted by the ultrasound probe, - a tracking unit configured to determine a relative position of the at last one ultrasound sensor with respect to the live images and/or the ultrasound probe on the basis of the sensed ultrasound signals, and - a mapping unit configured to map the determined relative position of the at least one ultrasound sensor onto the cardiac model to generate a visualization of the cardiac region of the patient body on the basis of the cardiac model and on the basis of the result of the mapping. - a cardiac medical device, - a 3D model providing unit configured to provide a three-dimensional cardiac model of the cardiac region of the patient body, - an ultrasound probe for acquiring image signals of the cardiac region of the patient body and an ultrasound unit configured to provide live images of the cardiac region of the patient body on the basis of the image signals, - at least one ultrasound sensor attached to the cardiac medical device for sensing ultrasound signals emitted by the ultrasound probe, - a tracking unit configured to determine a relative position of the at last one ultrasound sensor with respect to the live images and/or the ultrasound probe on the basis of the sensed ultrasound signals, and - a mapping unit configured to map the determined relative position of the at least one ultrasound sensor onto the cardiac model to generate a visualization of the cardiac region of the patient body on the basis of the cardiac model and on the basis of the result of the mapping.
An oxygen-gaseous fuel supply apparatus for a sintering machine by blowing oxygen into air inside a hood disposed above a raw material bed at a downstream side of an ignition furnace to enrich oxygen, and further sucking air supplied with a gaseous fuel diluted to not more than a lower flammable limit by wind boxes arranged below a pallet and introducing into the bed, and combusting the gaseous fuel and carbonaceous material in the bed to produce a sintered ore, wherein baffle plates each made of a chevron plate material are arranged in plural rows at intervals in the horizontal direction and in plural steps in the vertical direction so as to arrange the intervals in a zigzag form in a vertical mid position of the hood, and gaseous fuel supply pipes for supplying the gaseous fuel into air are arranged below the baffle plates, and oxygen supply pipes for supplying oxygen to blowing ports for blowing oxygen into air are arranged above the baffle plates; characterised in that the oxygen supply pipes and blowing ports are configured to blow oxygen of high concentration of not less than the oxygen concentration in air from the blowing ports at a high speed of not less than 10m/s and at least a portion of the oxygen supply pipes are piping disposed in the hood and made of copper alloy and/or Ni alloy for preventing burnout when oxygen is blown; wherein an oxygen supply main pipe is provided with a flashback arrester disposed outside of the hood and in the vicinity of the hood.
Connection terminal comprising a receiving body, a clamping element by means of which a conductor which is introduced into the connection terminal can be clamped to a busbar which is arranged in the connection terminal, a first lever arm which is rotatably mounted on the clamping element, and a second lever arm which is rotatably mounted on the first lever arm, characterized in that the second lever arm has an operating region by means of which the second lever arm can be pivoted, wherein, when the second lever arm is pivoted, the clamping element can be moved by means of the first lever arm into a clamping position and into a non-clamping position.
A radar device, comprising: at least one transmitter unit (102, 402, 502) configured to transmit a radar signal, wherein the at least one transmitter unit (102, 402, 502) is configured to modulate the radar signal with frame periods (T F) and inter-frame periods (T I); at least one receiver unit (104, 404, 504, 505) configured to receive a reflection of the radar signal, wherein the receiver unit (104, 404, 504, 505) comprises at least one filter unit (444, 448, 500, 515, 544, 548) configured to filter the received radar signal, at least one amplifier unit (108, 446, 450, 546, 550, 556) configured to amplify the signal from the filter unit and at least one analog-to-digital, ADC, converter (420, 568) configured to convert the signal from the amplifier unit into a digital signal; a saturation detector (110, 410, 510, 600) coupled to the at least one amplifier unit (108, 446, 450, 546, 550, 556) and configured to detect a saturation event in the at least one amplifier unit (108, 446, 450, 546, 550, 556); and characterized by a reset mechanism (112, 412, 562) configured to reset the at least one filter unit (444, 448, 500, 515, 544, 548) of the receiver unit (104, 404, 504, 505) in response to a detected saturation event by resetting the at least one filter unit (444, 448, 500, 515, 544, 548) during a next inter-frame period (T I). at least one transmitter unit (102, 402, 502) configured to transmit a radar signal, wherein the at least one transmitter unit (102, 402, 502) is configured to modulate the radar signal with frame periods (T F) and inter-frame periods (T I); at least one receiver unit (104, 404, 504, 505) configured to receive a reflection of the radar signal, wherein the receiver unit (104, 404, 504, 505) comprises at least one filter unit (444, 448, 500, 515, 544, 548) configured to filter the received radar signal, at least one amplifier unit (108, 446, 450, 546, 550, 556) configured to amplify the signal from the filter unit and at least one analog-to-digital, ADC, converter (420, 568) configured to convert the signal from the amplifier unit into a digital signal; a saturation detector (110, 410, 510, 600) coupled to the at least one amplifier unit (108, 446, 450, 546, 550, 556) and configured to detect a saturation event in the at least one amplifier unit (108, 446, 450, 546, 550, 556); and characterized by a reset mechanism (112, 412, 562) configured to reset the at least one filter unit (444, 448, 500, 515, 544, 548) of the receiver unit (104, 404, 504, 505) in response to a detected saturation event by resetting the at least one filter unit (444, 448, 500, 515, 544, 548) during a next inter-frame period (T I).
A method, comprising configuring an optical point to multipoint communication network including assigning a channel number C i by modulo-N arithmetic to each of a plurality of N access points, each of the plurality of N access points i) including a laser and ii) coupled to a hub having a shared optical receiver; and tuning the laser located in each of the plurality of N access points to a wavelength λ ui that is one of a set of M wavelengths as a function of the channel number assigned to the access point in which the laser is located, a channel spacing Δλ and an intrinsic wavelength λ u in of the laser to prevent optical beat interference at the shared optical receiver, wherein the channel number C i ≡ a i mod N wherein a i is a sequential number of the wavelength λ ui and a i = λ ui − λ u 0 Δ ⁢ λ wherein λ u0 is the first wavelength and Δλ is the channel spacing in the set of M wavelengths and Δλ is greater than zero.
A method for the heat treatment of wood, comprising a step for heating the wood in an oven placed in an enclosure, using hot gases supplied by a generator, a step for recovering vapors from the processing, and a step for injecting water into the oven so as to create water vapor, said method also implementing a step for monitoring the oxygen level in the oven, through the presence of at least one oxygen sensor installed in the oven and connected to a means for reading the measurement, characterized in that said oxygen sensor is connected to a self-regulation system for the water flow rate injected into the oven, so as to keep the oxygen level in the oven below a threshold value of 7%, at each moment of the method.
Hydroelectric facility comprising at least: - a main support including a pipe system extending between a water inlet coming into the facility and a water outlet going out of the facility; - a turbine mounted on this main support and having a shaft with an axis, around which the turbine is able to rotate; - an alternator - multiplier system associated with this shaft of the turbine; and - a distributor suitable for guiding the water towards the turbine, in which the pipe system extends between a water inlet coming into the facility and a water outlet going out of the facility, the turbine and the distributor being arranged between this inlet and this outlet so that the water coming into the facility through this inlet and going out of the facility through this outlet is guided and taken to the distributor and then the turbine in order to rotate it, in which the turbine, the alternator - multiplier system and the distributor form a unit with a support part in one piece mounted a) in a removable way on the main support and b) pivoting on this main support between a first position allowing this unit to be removed from the main support and a second position keeping the unit in place in the working position of the turbine in the main support and stopping this unit from being removed from the main support, in which the unit includes means of attachment suitable for working with a lifting device to ensure at least (a) pivoting of the unit in relation to the main support and (b) removal of the unit from the main support, these means of attachment advantageously being mounted on the support part, characterised in that this support part of the unit has a shaft or coaxial shaft portions intended to be placed in a groove of an element or elements that is/are integral with the main support, this shaft or coaxial shaft portions having an axis defining the pivoting axis of the unit in relation to the main support, this pivoting axis extending perpendicularly to the axis of rotation of the turbine, in which the means of attachment is/are mounted on the distributor or on the support part at the level of the distributor, and in which the unit has a centre of gravity, when the turbine is in the working position this centre of gravity being situated between a first vertical plane passing through the shaft or pivoting shaft portions and a second vertical plane passing through the means of attachment and parallel to this first vertical plane. - a main support including a pipe system extending between a water inlet coming into the facility and a water outlet going out of the facility; - a turbine mounted on this main support and having a shaft with an axis, around which the turbine is able to rotate; - an alternator - multiplier system associated with this shaft of the turbine; and - a distributor suitable for guiding the water towards the turbine,
A pump casing with an adjustment assembly for a pump, the pump including: an outer housing which encapsulates the pump casing, the pump casing including: a main part (34, 291), and a side part (38, 289) having a main axis and a side wall section (286, 380) extending laterally with respect to the main axis, the adjustment assembly being operable to cause relative displacement between the side part (38, 289) and the main part (34, 291) of the pump casing, the adjustment assembly including: a drive device and an actuator (302, 406) which can be activated externally of the outer housing of the pump, said drive device being operable to cause said relative displacement of the side part (38, 289) in response to activation of said actuator, characterized in that said relative displacement is capable of being rotational movement which is effected in one operational step, and axial movement which is effected in another operational step. an outer housing which encapsulates the pump casing, the pump casing including: a main part (34, 291), and a side part (38, 289) having a main axis and a side wall section (286, 380) extending laterally with respect to the main axis, a main part (34, 291), and a side part (38, 289) having a main axis and a side wall section (286, 380) extending laterally with respect to the main axis, the adjustment assembly being operable to cause relative displacement between the side part (38, 289) and the main part (34, 291) of the pump casing, the adjustment assembly including: a drive device and an actuator (302, 406) which can be activated externally of the outer housing of the pump, said drive device being operable to cause said relative displacement of the side part (38, 289) in response to activation of said actuator, a drive device and an actuator (302, 406) which can be activated externally of the outer housing of the pump, said drive device being operable to cause said relative displacement of the side part (38, 289) in response to activation of said actuator, characterized in that said relative displacement is capable of being rotational movement which is effected in one operational step, and axial movement which is effected in another operational step. rotational movement which is effected in one operational step, and axial movement which is effected in another operational step.
A method for loading and/or unloading a loading space, in particular the loading space of a transport vehicle, using a loading vehicle which drives at least once into the loading space in order to deposit and/or pick up at least one load object, an access area of the loading space being protected in a stationary protection by at least one first sensor (18a-b) that detects the presence of an object in the access area, and the loading vehicle being protected in a mobile protection by at least one second sensor that detects the presence of an object in front of the loading vehicle and thus stationary and mobile protection jointly ensure that the loading vehicle does not collide with unexpected objects during loading and/or unloading, characterized in that, when entering the loading space, the loading vehicle first moves into a first position which is so close to the protected access area that no person can fit between the loading vehicle and the protected access area, and then the protection of the access area by the first sensor (18a-b) is adapted in such a way that a passage corridor is created for the loading vehicle, thus partial muting takes place in the stationary protection, which enables the loading vehicle to drive through the protected access area into the loading space.
Robot arm, comprising a plurality of links which are arranged one after the other and connected by means of joints, characterised by an electronic data carrier arranged in or on the robot arm, in which data carrier an electronic data set is saved, on the basis of which a mathematical robot model of the robot arm can be created by means of a calculation program.
A crawler vehicle supporting device, in particular for a crawler vehicle for grooming ski slopes, the supporting device (9; 21; 30; 39) being located between a rear wheel (4; 38) and a front wheel, along the inside of a traction portion of the track, and comprising a plurality of rollers (14; 22; 31; 40) much smaller in diameter than the rear wheel (4; 38); a belt (15; 23; 32; 43) looped around the rollers (14; 22; 31; 40); and a structure (16; 24; 33; 44) designed to support the rollers (14; 22; 31; 40) and to push the rollers (14; 22; 31; 40) and the belt (15; 23; 32; 43) against the inside of the traction portion of the track; characterised in that, the structure (16; 24; 33; 44) comprises at least one beam (17; 25; 34; 45) for supporting the rollers (14; 22; 31; 40); and an articulated mechanism (18; 26; 35; 46) for connecting the beam (17; 25; 34; 45) to a frame of the crawler vehicle.
A diagnostic field device for a two-wire process control loop of an industrial process control or monitoring system operating in accordance with a fieldbus based protocol in which timing signals, or communication signals, which use timing to convey data, are transmitted on the two-wire process control loop, the diagnostic field device comprising: digital communication monitoring circuitry configured to receive a digital communication signal from the two-wire process control loop, the digital communication signal including loop timing data; timing circuitry configured to provide a timing output comprising internal timing data; diagnostic circuitry configured to diagnose operation of the two-wire process control loop based upon monitoring trends in a relationship between the loop timing data of the digital communication signal and the internal timing data of the timing output; and power supply circuitry configured to be coupled to the two-wire process control loop and provide a power output to all of the circuitry of the diagnostic field device to thereby power the diagnostic field device with power received from the two-wire process control loop. digital communication monitoring circuitry configured to receive a digital communication signal from the two-wire process control loop, the digital communication signal including loop timing data; timing circuitry configured to provide a timing output comprising internal timing data; diagnostic circuitry configured to diagnose operation of the two-wire process control loop based upon monitoring trends in a relationship between the loop timing data of the digital communication signal and the internal timing data of the timing output; and power supply circuitry configured to be coupled to the two-wire process control loop and provide a power output to all of the circuitry of the diagnostic field device to thereby power the diagnostic field device with power received from the two-wire process control loop.
A process for increasing the production of methane in an anaerobic sludge treatment process, characterized in that the method comprises the following steps: a) introducing sludge into an anaerobic biological sludge or waste water treatment system; b) measuring the COD level of the sludge material at a monitoring point of the sludge or waste water treatment system; c) calculating the nitrate dosage to be added; d) adding nitrate as a nitrate salt solution based on the calculations in step c) in an amount corresponding to 1- 4 % of the COD of the organics in the anaerobic digestion feed; and wherein the dosage of nitrate is calculated from the equation: q NO 3 kg / h = Q input flow m 3 / h * COD kg / m 3 * 1.55 * μ wherein μ is a value between 0.01 and 0.04. a) introducing sludge into an anaerobic biological sludge or waste water treatment system; b) measuring the COD level of the sludge material at a monitoring point of the sludge or waste water treatment system; c) calculating the nitrate dosage to be added; d) adding nitrate as a nitrate salt solution based on the calculations in step c) in an amount corresponding to 1- 4 % of the COD of the organics in the anaerobic digestion feed; and wherein the dosage of nitrate is calculated from the equation: q NO 3 kg / h = Q input flow m 3 / h * COD kg / m 3 * 1.55 * μ wherein μ is a value between 0.01 and 0.04.
Boot for joints, especially for constant velocity joints, having a first attachment region and a fold region with a plurality of folds with peaks and roots and a transition area adjacent to the last fold (18.1) arranged nearest said first attachment region, said transition area comprising a connecting root between said last fold (18.1) and a transition part, said transition part being arranged directly adjacent to said connecting root, characterized in that said transition part is inclining towards said first attachment region, and wherein said transition part, in a cross-sectional view in a direction of a main axis of said boot, has a convex shape over the whole length of said transition part.
A coupling circuit having a switching function for coupling an insulation monitoring device (6, 6a, 6b) to an unearthed power supply system (2, 2a, 2b), the coupling circuit consisting of several identical coupling modules switched in series, wherein the coupling module comprises several switch units, which each comprise a coupling impedance, a switch which is arranged in series to the coupling impedance, for disconnecting the insulation monitoring device (6, 6a, 6b) from the power supply system (2, 2a, 2b) and comprises a control circuit for controlling the switch, and wherein the corresponding coupling module comprises precisely one transformer, which is connected at the input side to an external power supply unit or to a voltage output of a transformer of an upstream-connected coupling module of the coupling modules, wherein the transformer has voltage outputs for voltage supply of the control circuit and for voltage supply of another coupling module of the coupling modules and for potential separation between the coupling modules and within the coupling modules between the switch units.
Module for depolluting air by wet electrofiltration, said module having: - at least one first tubular duct with a closed section, having a wall delimiting an internal space and an external space and having a water inlet, an air inlet and an air outlet, - at least a first electrode and a second electrode, said second electrode being produced continuously over the entire length of the first duct, - a first flow ramp for a stream of water (F_eau), connected to said water inlet, and a flow channel for a stream of air (F_air), connected to said air inlet, said flow ramp and said flow channel being superposed and arranged in the same internal space of said duct between said first electrode and said second electrode, - said ramp having a flow surface that is continuous over its entire length and in contact with said first electrode, - said flow ramp being inclined along a slope forming an angle greater than 0° and less than 60°, the module being characterized in that the first duct is of helical shape. - at least one first tubular duct with a closed section, having a wall delimiting an internal space and an external space and having a water inlet, an air inlet and an air outlet, - at least a first electrode and a second electrode, said second electrode being produced continuously over the entire length of the first duct, - a first flow ramp for a stream of water (F_eau), connected to said water inlet, and a flow channel for a stream of air (F_air), connected to said air inlet, said flow ramp and said flow channel being superposed and arranged in the same internal space of said duct between said first electrode and said second electrode, - said ramp having a flow surface that is continuous over its entire length and in contact with said first electrode, - said flow ramp being inclined along a slope forming an angle greater than 0° and less than 60°, the module being characterized in that the first duct is of helical shape.