mhurhangee/ep-ind-claims huggingface dataset:
Sound processor unit of a cochlear implant system, wherein the sound processor unit comprises an electric circuit, which comprises a sound processor antenna with a sound processor antenna capacitance and a sound processor antenna inductance, wherein the sound processor antenna capacitance and the sound processor antenna inductance are connected in series and form a resonant circuit, wherein the electric circuit of the sound processor unit further comprises a switching element connected in series with the sound processor antenna capacitance and the sound processor antenna inductance, and the electric circuit of the sound processor unit further comprises an inductive element connected in parallel with the switching element, wherein when the switching element is in a closed state, the inductive element is in a short-circuited state and the sound processor antenna has a first resonant frequency, and when the switching element is in an open state, the inductive element is in a non-short-circuited state and the sound processor antenna has a second resonant frequency which differs from the first resonant frequency. wherein the sound processor unit comprises an electric circuit, which comprises a sound processor antenna with a sound processor antenna capacitance and a sound processor antenna inductance, wherein the sound processor antenna capacitance and the sound processor antenna inductance are connected in series and form a resonant circuit, wherein the electric circuit of the sound processor unit further comprises a switching element connected in series with the sound processor antenna capacitance and the sound processor antenna inductance, and the electric circuit of the sound processor unit further comprises an inductive element connected in parallel with the switching element, wherein when the switching element is in a closed state, the inductive element is in a short-circuited state and the sound processor antenna has a first resonant frequency, and when the switching element is in an open state, the inductive element is in a non-short-circuited state and the sound processor antenna has a second resonant frequency which differs from the first resonant frequency.
An adjustment element for a divert-air valve, comprising an actuation element which is movable in a translatory fashion, and a control body which is movable with the actuation element, characterized in that the control body comprises a first hollow body having a circumferentially closed outer surface from the first axial end of which an annular plate extends radially inward, and a second hollow body having a radially outer annular plate which is sealingly fastened in encircling fashion axially to the annular plate of the first hollow body and from the radially inner region of which an outer surface extends in the direction of the actuation element in the interior of the first hollow body.
Machine for fixing and finishing garments, comprising: - a first shell-portion and a second shell-portion mutually coupleable and defining a treatment chamber for said garments, - a supply conduit for supplying a steam-flow into said treatment chamber, - an outlet-conduit for evacuating the steam-flow from said treatment chamber, - actuating means for moving said first and second shell-portions from an open configuration, which enables said garments to enter said treatment chamber, to a close configuration that enables said garments to be treated with said steam-flow inside said treatment chamber, CHARACTERIZED IN THAT it comprises a heat-recovery equipment which includes: - at least a heat-exchanger in fluid-connection with said outlet-conduit for the steam-flow, wherein said heat-exchanger comprises a plurality of conduction elements arranged for being heated by said steam-flow; - ventilation means associated to said heat-exchanger and arranged for generating an air-flow directed to said plurality of conduction elements to generate a heated air flow addressed to said garments at the exit of said treatment chamber to at least partially dry said garments. - a first shell-portion and a second shell-portion mutually coupleable and defining a treatment chamber for said garments, - a supply conduit for supplying a steam-flow into said treatment chamber, - an outlet-conduit for evacuating the steam-flow from said treatment chamber, - actuating means for moving said first and second shell-portions from an open configuration, which enables said garments to enter said treatment chamber, to a close configuration that enables said garments to be treated with said steam-flow inside said treatment chamber, CHARACTERIZED IN THAT it comprises a heat-recovery equipment which includes: - at least a heat-exchanger in fluid-connection with said outlet-conduit for the steam-flow, wherein said heat-exchanger comprises a plurality of conduction elements arranged for being heated by said steam-flow; - ventilation means associated to said heat-exchanger and arranged for generating an air-flow directed to said plurality of conduction elements to generate a heated air flow addressed to said garments at the exit of said treatment chamber to at least partially dry said garments. - at least a heat-exchanger in fluid-connection with said outlet-conduit for the steam-flow, wherein said heat-exchanger comprises a plurality of conduction elements arranged for being heated by said steam-flow; - ventilation means associated to said heat-exchanger and arranged for generating an air-flow directed to said plurality of conduction elements to generate a heated air flow addressed to said garments at the exit of said treatment chamber to at least partially dry said garments.
A terminal device comprising: a communication unit configured to perform wireless communication; and a control unit configured to control transmission of control information regarding a supported communication scheme to an external device through the wireless communication, characterized in that, in a case in which New Radio, NR, capable of controlling a sub carrier interval and a symbol length as a first communication scheme and Long Term Evolution, LTE, as a second communication scheme different from the first communication scheme are supported by the terminal device, the control unit is further configured to associate, with the control information, a parameter indicating whether or not dual connectivity based on the first communication scheme and the second communication scheme is supported. a communication unit configured to perform wireless communication; and a control unit configured to control transmission of control information regarding a supported communication scheme to an external device through the wireless communication, characterized in that, in a case in which New Radio, NR, capable of controlling a sub carrier interval and a symbol length as a first communication scheme and Long Term Evolution, LTE, as a second communication scheme different from the first communication scheme are supported by the terminal device, the control unit is further configured to associate, with the control information, a parameter indicating whether or not dual connectivity based on the first communication scheme and the second communication scheme is supported.
A combine harvester comprising: a crop inlet system (104, 106); a threshing system (108, 110) for separating the crop into grain and discharge material; a rear discharge for expelling the discharge material from the combine harvester; a combine drive system including a drive motor and an output drive shaft (200, 206); and a chopper and spreading assembly for the combine harvester; the chopper and spreading assembly comprising: a housing; a rotor mounted in the housing for rotation around a generally horizontal axis and carrying a plurality of chopper blades for chopping the discharge material; and a drive transmission for connection to said output drive shaft (200, 206) of the drive system of the combine harvester for communicating drive from said output drive shaft (200, 206) to the rotor, wherein there is provided an adjustment to remotely adjust the rotational speed of the rotor; characterized in that the chopper and spreading assembly is mounted at the rear discharge and includes a material spreading assembly comprising a tailboard with guide fins receiving the chopped material from the rotor with the fins spreading the material to the rear and sides of the combine harvester and that there is provided a continuously variable transmission for remotely adjusting the speed of the rotor. a crop inlet system (104, 106); a threshing system (108, 110) for separating the crop into grain and discharge material; a rear discharge for expelling the discharge material from the combine harvester; a combine drive system including a drive motor and an output drive shaft (200, 206); and a chopper and spreading assembly for the combine harvester; the chopper and spreading assembly comprising: a housing; a rotor mounted in the housing for rotation around a generally horizontal axis and carrying a plurality of chopper blades for chopping the discharge material; and a drive transmission for connection to said output drive shaft (200, 206) of the drive system of the combine harvester for communicating drive from said output drive shaft (200, 206) to the rotor, a housing; a rotor mounted in the housing for rotation around a generally horizontal axis and carrying a plurality of chopper blades for chopping the discharge material; and a drive transmission for connection to said output drive shaft (200, 206) of the drive system of the combine harvester for communicating drive from said output drive shaft (200, 206) to the rotor, wherein there is provided an adjustment to remotely adjust the rotational speed of the rotor; characterized in that the chopper and spreading assembly is mounted at the rear discharge and includes a material spreading assembly comprising a tailboard with guide fins receiving the chopped material from the rotor with the fins spreading the material to the rear and sides of the combine harvester and that there is provided a continuously variable transmission for remotely adjusting the speed of the rotor.
Light having a lighting means carrier; at least one LED lighting means that is arranged on the lighting means carrier; and a voltage converter circuit that is configured so as to supply the at least one LED lighting means with electrical current, and it is possible to control the output current of said voltage converter circuit; characterised in that the voltage converter circuit comprises a voltage converter that is connected in series to the at least one LED lighting means and said voltage converter circuit is supplied with electrical voltage by the voltage converter; wherein the voltage converter circuit furthermore comprises a control circuit having a switch and said control circuit is configured so as depending on the mechanical operating position of the switch to output to the voltage converter an actuation signal for setting a desired output current of the voltage converter; wherein the switch furthermore comprises a multiplicity of parallel-connected current-conducting branches having resistors (17a, 17b, 17c) with different resistance values and said switch comprises a contactor, wherein the contactor is configured so as to selectively connect each one of the multiplicity of parallel-connected current-conducting branches to an input contact of the switch; and wherein the control circuit furthermore comprises a detector circuit that is configured so as to determine a voltage drop (Ua, Ub, Uc) across the resistors (17a, 17b, 17c) and in dependence upon the determined voltage drop (Ua, Ub, Uc) to output to the voltage converter the actuation signal for setting a desired output current of the voltage converter.
Magnetic resonance device, having a main magnet unit with a cylindrical patient aperture, wherein the magnetic resonance device has in the patient aperture at least one radial gradient coil, which is embodied as a cylinder coil and is embodied to generate a gradient field having, at least in regions, a radial gradient in relation to its own central axis parallel to the longitudinal axis of the patient aperture, characterised in that the magnetic resonance device has, in addition to the radial gradient coil, an A20 gradient coil, and further characterised in that a control device of the magnetic resonance device is embodied for supplementary use of the radial gradient coil and the A20 gradient coil in order to realise a spatial encoding.
A fan with a rotor and a fan impeller, wherein the rotor is rotatable about an axis of rotation and has a connecting portion, wherein the fan impeller has a fastening portion corresponding to the connecting portion and, with the fastening portion on the connecting portion, is centered by means of at least one centering element relative to the rotor and fixed to the rotor by means of at least one fastening element, wherein the fastening element is a screw with a screw head, a threaded portion, and a shaft that is arranged between the threaded portion and the screw head, a spacer sleeve being arranged around the shaft whose outer diameter is smaller than an outer diameter of the screw head and whose thickness is smaller by a predetermined amount than a thickness of the fastening portion, wherein a thread corresponding to the fastening element or an opening corresponding to the fastening element is respectively formed in the connecting portion, and a through opening corresponding to the spacer sleeve is respectively formed in the fastening portion, and wherein the fastening portion is also made of a characteristically deformable material, so that when the screw is screwed into the thread, the spacer sleeve is guided into the through opening, a predetermined preload force of the screw is supported via the spacer sleeve against the connecting portion, and the fastening portion is clamped to the connecting portion in an area adjoining the through opening in which the screw head rests against the fastening portion, wherein the spacer sleeve is held by the screw on the shaft. wherein the rotor is rotatable about an axis of rotation and has a connecting portion, wherein the fan impeller has a fastening portion corresponding to the connecting portion and, with the fastening portion on the connecting portion, is centered by means of at least one centering element relative to the rotor and fixed to the rotor by means of at least one fastening element, wherein the fastening element is a screw with a screw head, a threaded portion, and a shaft that is arranged between the threaded portion and the screw head, a spacer sleeve being arranged around the shaft whose outer diameter is smaller than an outer diameter of the screw head and whose thickness is smaller by a predetermined amount than a thickness of the fastening portion, wherein a thread corresponding to the fastening element or an opening corresponding to the fastening element is respectively formed in the connecting portion, and a through opening corresponding to the spacer sleeve is respectively formed in the fastening portion, and wherein the fastening portion is also made of a characteristically deformable material, so that when the screw is screwed into the thread, the spacer sleeve is guided into the through opening, a predetermined preload force of the screw is supported via the spacer sleeve against the connecting portion, and the fastening portion is clamped to the connecting portion in an area adjoining the through opening in which the screw head rests against the fastening portion, wherein the spacer sleeve is held by the screw on the shaft.
Guide vane segment for a turbomachine, comprising a radially inner cover plate that has a cover plate surface which is designed to be arranged in the turbomachine so as to face a rotor blade that is adjacent to the guide vane segment upstream thereof and to extend substantially along a cone lateral surface (K 1), the cone axis of which corresponds to the rotational axis of a rotor shaft, wherein the cover plate surface faces the rotor shaft when the guide vane segment is assembled as intended.
A system for feeding propellant to an igniter, the system comprising: - a tank presenting an admission and an outlet; - a liquid propellant feed line connected to the admission of the tank; and - a propellant outlet line connecting an outlet of the tank to an igniter; said tank comprising an inside volume filled with heat storage spheres, said storage spheres being adapted successively to store heat delivered by a heat-conveying fluid, and to transmit it to a fluid passing through said tank, in such a manner as to vaporize a liquid propellant passing through said tank. - a tank presenting an admission and an outlet; - a liquid propellant feed line connected to the admission of the tank; and - a propellant outlet line connecting an outlet of the tank to an igniter;
An adapter assembly, comprising: an outer housing; an outer tube extending distally from the outer housing; an articulation nut; an articulation link axially supported within the outer tube, the articulation link having a proximal end portion operably coupled to the articulation nut, such that rotation of the articulation nut results in translation of the articulation link; a drive belt operably coupled to a distal end portion of the articulation link, wherein the drive belt has a distal end portion configured to be operably coupled to a proximal end portion of a surgical loading unit, such that movement of the drive belt articulates the surgical loading unit relative to the adapter assembly; a proximal pulley operably coupled to a proximal end portion of the drive belt, the drive belt being wrapped about the proximal pulley; a proximal housing having the proximal pulley rotationally supported therein; a distal housing having a distal end portion configured to be pivotably coupled to the proximal end portion of the surgical loading unit, wherein the articulation nut is rotationally supported within the outer housing; and wherein the adapter assembly further comprises a tension screw disposed between the proximal and distal housings (100, 102) and configured to adjust a distance by which the proximal housing is spaced from the distal housing and to thereby adjust a tension in the drive belt. an outer housing; an outer tube extending distally from the outer housing; an articulation nut; an articulation link axially supported within the outer tube, the articulation link having a proximal end portion operably coupled to the articulation nut, such that rotation of the articulation nut results in translation of the articulation link; a drive belt operably coupled to a distal end portion of the articulation link, wherein the drive belt has a distal end portion configured to be operably coupled to a proximal end portion of a surgical loading unit, such that movement of the drive belt articulates the surgical loading unit relative to the adapter assembly; a proximal pulley operably coupled to a proximal end portion of the drive belt, the drive belt being wrapped about the proximal pulley; a proximal housing having the proximal pulley rotationally supported therein; a distal housing having a distal end portion configured to be pivotably coupled to the proximal end portion of the surgical loading unit, wherein the articulation nut is rotationally supported within the outer housing; and wherein the adapter assembly further comprises a tension screw disposed between the proximal and distal housings (100, 102) and configured to adjust a distance by which the proximal housing is spaced from the distal housing and to thereby adjust a tension in the drive belt.
A method of producing a recombinant protein, including peptides, polypeptides and antibodies, comprising (a) fermenting a E.coli cell and wherein said E.coli cell has been transformed with a nucleic acid encoding said recombinant protein, and (b) harvesting said recombinant protein under conditions where dissolved oxygen (dO 2 is maintained at levels greater than 0% continuously throughout the harvest operations of step (b), wherein the harvest operations comprise a homogenization stage, and wherein said dO 2 is maintained 1) prior to homogenization at levels greater than 75%; and/or 2) after homogenization at about 50% or at levels greater than 50%; and (c) purifying said recombinant protein to a filtered bulk for storage, wherein said filtered bulk does not contain detectable 1,4-dihydroxy-2-naphthoate (DHNA)-recombinant protein adduct, as measured by an ion exchange chromatography assay at 310 nm. (a) fermenting a E.coli cell and wherein said E.coli cell has been transformed with a nucleic acid encoding said recombinant protein, and (b) harvesting said recombinant protein under conditions where dissolved oxygen (dO 2 is maintained at levels greater than 0% continuously throughout the harvest operations of step (b), wherein the harvest operations comprise a homogenization stage, and wherein said dO 2 is maintained 1) prior to homogenization at levels greater than 75%; and/or 2) after homogenization at about 50% or at levels greater than 50%; and 1) prior to homogenization at levels greater than 75%; and/or 2) after homogenization at about 50% or at levels greater than 50%; and (c) purifying said recombinant protein to a filtered bulk for storage, wherein said filtered bulk does not contain detectable 1,4-dihydroxy-2-naphthoate (DHNA)-recombinant protein adduct, as measured by an ion exchange chromatography assay at 310 nm.
A prosthesis for lower-limb amputees, said prosthesis comprising a foot segment and a tibial segment to each other pivotally articulated at an ankle joint, wherein the gait cycle of said prosthesis comprises a so-called swing phase, between the disengagement of the foot toe and the support of the heel of the foot, and a so-called stance phase, comprising the support of the heel, the support of the sole and the disengagement of the toe, wherein said ankle joint comprises: - an actuator, in particular a gear motor, - a microprocessor means that is adapted to control the movement of the ankle joint by said actuator for reproducing the natural gait cycle and defining the relative position of the foot with respect to the tibia, - a position transducer at the articulation axis of the ankle that reproduces the movement of the tibia with respect to the foot, said position transducer measuring the rotation of the foot segment at the ankle and supplying an angular position signal; - a program means residing in the microprocessor, said program means calculating the foot/tibia angular speed according to said position signal; characterised in that - said program means is arranged to generate a plurality of n-dimensional curves that reproduce the gait cycle, and that - said program means causes said actuator to belong to one of said curves for characterizing a predetermined gait or posture condition. - an actuator, in particular a gear motor, - a microprocessor means that is adapted to control the movement of the ankle joint by said actuator for reproducing the natural gait cycle and defining the relative position of the foot with respect to the tibia, - a position transducer at the articulation axis of the ankle that reproduces the movement of the tibia with respect to the foot, said position transducer measuring the rotation of the foot segment at the ankle and supplying an angular position signal; - a program means residing in the microprocessor, said program means calculating the foot/tibia angular speed according to said position signal; - said program means is arranged to generate a plurality of n-dimensional curves that reproduce the gait cycle, - said program means causes said actuator to belong to one of said curves for characterizing a predetermined gait or posture condition.