mhurhangee/ep-ind-claims huggingface dataset:
A formwork system for producing a concrete wall, in which the concrete of the concrete wall to be produced can be filled up to a first contact face of a first formwork element of the formwork system, and the first formwork element has a first formwork element connection face, which is embodied obliquely to the first contact face, and the formwork system has a first wedge with a first wedge connection face and a second wedge connection face, and the first wedge connection face can be placed against the first formwork element connection face, and the formwork system includes a second formwork element, which has a second contact face, can be filled up to the concrete of the concrete wall to be produced, and the second formwork element has a second formwork element connection face, which is embodied obliquely to the second contact face, and the second wedge connection face of the first wedge can be placed against the second formwork element connection face, characterized in that the first wedge is secured to the first formwork element and to the second formwork element by a single formwork lock in the form of a formwork clamp.
A system for removing or modifying material within a bodily lumen of a patient, comprising: a pulse generator configured to be located externally to the patient; a catheter comprising an inner lumen with a distal end and at least one pair of electrodes mounted on an electrode pair housing disposed within a litho-cushion that is sealably attached to the distal end of the catheter, wherein the electrode pair housing provides a watertight seal within the inner lumen and wherein the at least one pair of electrodes is in operative wired connection with the pulse generator and is configured to generate arcing between the electrodes of the at least one electrode pair when energized by the pulse generator; wherein the litho-cushion has no attachment at its distal end and is fluid-fillable and watertight and is in fluid communication with a fluid conduit disposed within the inner lumen of the catheter and a fluid reservoir wherein the litho-cushion is configured to inflate with fluid; and at least one forward-focusing reflector adapted to move between an undeployed configuration to a deployed configuration, the at least one forward-focusing reflector extending at least partially distally past the distal end of the inner lumen of the catheter, the at least one forward-focusing reflector in operative connection with the fluid-fillable litho-cushion when deployed and when the litho-cushion is inflated. a pulse generator configured to be located externally to the patient; a catheter comprising an inner lumen with a distal end and at least one pair of electrodes mounted on an electrode pair housing disposed within a litho-cushion that is sealably attached to the distal end of the catheter, wherein the electrode pair housing provides a watertight seal within the inner lumen and wherein the at least one pair of electrodes is in operative wired connection with the pulse generator and is configured to generate arcing between the electrodes of the at least one electrode pair when energized by the pulse generator; wherein the litho-cushion has no attachment at its distal end and is fluid-fillable and watertight and is in fluid communication with a fluid conduit disposed within the inner lumen of the catheter and a fluid reservoir wherein the litho-cushion is configured to inflate with fluid; and at least one forward-focusing reflector adapted to move between an undeployed configuration to a deployed configuration, the at least one forward-focusing reflector extending at least partially distally past the distal end of the inner lumen of the catheter, the at least one forward-focusing reflector in operative connection with the fluid-fillable litho-cushion when deployed and when the litho-cushion is inflated.
Process of manufacturing a textile-based particle/polymer composite using a particulate substrate S comprising shredded textile products and at least one polymeric binder P, comprising the following steps: (i) the particulate substrate S is introduced into a gas stream, then (ii) the particulate substrate S is contacted with a dispersion or solution of the polymeric binder P in the gas stream, then (iii) the particulate substrate S contacted with the polymeric binder P is dried in the gas stream and deposited, then (iv) the obtained deposited binder-contacted substrate is converted into a layer or transferred into a mold of a desired shape, and then (v) the binder-contacted substrate is densified at a suitable temperature to form the textile-based particle/polymer composite, wherein (a) the substrate S comprises shredded textile products; and (b) the polymeric binder P is thermoplastic and has a glass transition temperature [Tg P] ≥ - 20 °C measured according to DIN EN ISO 11357-2, or (c) the polymeric binder P is duroplastic. (i) the particulate substrate S is introduced into a gas stream, then (ii) the particulate substrate S is contacted with a dispersion or solution of the polymeric binder P in the gas stream, then (iii) the particulate substrate S contacted with the polymeric binder P is dried in the gas stream and deposited, then (iv) the obtained deposited binder-contacted substrate is converted into a layer or transferred into a mold of a desired shape, and then (v) the binder-contacted substrate is densified at a suitable temperature to form the textile-based particle/polymer composite, (a) the substrate S comprises shredded textile products; and (b) the polymeric binder P is thermoplastic and has a glass transition temperature [Tg P] ≥ - 20 °C measured according to DIN EN ISO 11357-2, or (c) the polymeric binder P is duroplastic.
A distortion compensation apparatus for compensating distortion of an amplifier, comprising: a distortion compensation processing section configured to perform a predistortion process for a signal provided to the amplifier, based on an amplifier model of the amplifier, the distortion compensation processing section being further configured to output a compensated signal to provide the compensated signal to the amplifier; an estimation section configured to estimate the amplifier model; and a filter (45a, 46b), wherein the estimation section estimates the amplifier model, based on the compensated signal before being provided to the amplifier and a monitor signal obtained by monitoring an output of the amplifier, a monitor band of the monitor signal provided to the estimation section is narrower than a frequency band of the compensated signal, and the filter is provided so as to eliminate an influence of a signal component outside the monitor band among signal components of the compensated signal before being provided to the amplifier, on the estimation of the amplifier model by the estimation section, the estimation section is configured to generate a replica signal of the compensated signal, based on the monitor signal obtained by monitoring the output of the amplifier, and estimate the amplifier model, based on an error signal indicating an error of the replica signal with respect to the compensated signal, and the filter (45a, 45b) is provided so as to restrict a frequency band of the error signal to the frequency band of the monitor signal. a distortion compensation processing section configured to perform a predistortion process for a signal provided to the amplifier, based on an amplifier model of the amplifier, the distortion compensation processing section being further configured to output a compensated signal to provide the compensated signal to the amplifier; an estimation section configured to estimate the amplifier model; and a filter (45a, 46b), wherein the estimation section estimates the amplifier model, based on the compensated signal before being provided to the amplifier and a monitor signal obtained by monitoring an output of the amplifier, a monitor band of the monitor signal provided to the estimation section is narrower than a frequency band of the compensated signal, and the filter is provided so as to eliminate an influence of a signal component outside the monitor band among signal components of the compensated signal before being provided to the amplifier, on the estimation of the amplifier model by the estimation section, the estimation section is configured to generate a replica signal of the compensated signal, based on the monitor signal obtained by monitoring the output of the amplifier, and estimate the amplifier model, based on an error signal indicating an error of the replica signal with respect to the compensated signal, and the filter (45a, 45b) is provided so as to restrict a frequency band of the error signal to the frequency band of the monitor signal.
A sealed cap intended for closing a container, of the type formed by a peripheral skirt having, at its internal portion, a peripheral bead for snapping onto a corresponding collar of a neck of the container and connected, at its upper portion, to a lid, via two tearable films (8, 9) of a tamperproof strip, provided with gripping means, characterized in that these means are formed with at least one end tab of the strip, inscribed in the initial cover of the cap before being torn, the lower peripheral rim of said strip having a positive cusp at the tab in order to form a lower support against the collar of the container upon snapping on the bead of the cap onto the collar of the neck, so as to cause an axial thrust on the tab and consequently a displacement proportional to the height (h) of the cusp, in order to shift by as much the upper edge of the tab above the plane of the lid and form an initial grip for the tamperproof strip to which is attached the tab.
Dismountable hollow metal mandrel for winding of a composite container, such as a solid propellant reservoir of a rocket, characterized in that the mandrel comprises three interconnected and dismountable parts (2, 3), respectively a cylindrical portion and two domed end portions having a symmetry of revolution about the longitudinal axis (X-X') of the cylindrical portion which comprises a plurality of elongated, rectangular and arcuate segments, assembled to each other side by side by means of tenons distributed along a longitudinal side of each elongated segment and respectively engaging in mortises distributed along the adjacent longitudinal side of a neighboring segment, and in that the elongated segments are held together side by side by detachable fastening means which clamp the tenons in their respective mortises.
A quantum device, comprising: a qubit chip comprising a plurality of qubits; an interposer attached to and electrically connected to the qubit chip; a substrate handler (112A, 112 B) attached to one side of the qubit chip or to one side of the interposer, or both so as to be thermally in contact with the qubit chip or the interposer, or both, wherein the substrate handler (112A, 112 B) includes a plurality of vias (114A, 114B), characterized in that at least a portion of plurality of vias (114A, 114B) being filled with a non-superconducting material, the non-superconducting material being selected to dissipate heat generated in the qubit chip, the interposer or both. a qubit chip comprising a plurality of qubits; an interposer attached to and electrically connected to the qubit chip; a substrate handler (112A, 112 B) attached to one side of the qubit chip or to one side of the interposer, or both so as to be thermally in contact with the qubit chip or the interposer, or both, wherein the substrate handler (112A, 112 B) includes a plurality of vias (114A, 114B), characterized in that at least a portion of plurality of vias (114A, 114B) being filled with a non-superconducting material, the non-superconducting material being selected to dissipate heat generated in the qubit chip, the interposer or both.
A checkout system with a product conveyor belt, a drive motor and a controller for the drive motor of the product conveyor belt at a checkout with, characterized in that the controller comprises: - a start controller that controls the drive motor in such a manner that the drive motor initially drives with a non-reduced torque when accelerating the product conveyor belt from the non-driven state before the phasestart cutting and/or phase-end cutting controller further accelerates the product conveyor belt with reduced torque, and - the phase-start cutting and/or phase-end cutting controller which controls the drive motor such that the product conveyor belt is driven with a reduced torque starting from a non-driven state, and. - a start controller that controls the drive motor in such a manner that the drive motor initially drives with a non-reduced torque when accelerating the product conveyor belt from the non-driven state before the phasestart cutting and/or phase-end cutting controller further accelerates the product conveyor belt with reduced torque, and - the phase-start cutting and/or phase-end cutting controller which controls the drive motor such that the product conveyor belt is driven with a reduced torque starting from a non-driven state, and.
A doping system comprising: a doping tank (3, 5, 203, 205, 207) configured to accommodate a solution including alkali metal ions; a conveying unit (9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 35, 37, 39, 41, 43, 45, 305, 307, 109, 311, 313, 315, 317, 119, 321, 323) configured to convey a strip-shaped electrode precursor including an active material layer along a path passing through the doping tank (3, 5, 203, 205, 207); a counter electrode unit (51, 52) configured to be accommodated in the doping tank (3, 5, 203, 205, 207); and a connection unit (15, 21, 25, 29, 61, 87, 89, 317, 321) configured to electrically connect the electrode precursor and the counter electrode unit (51, 52); characterized in that a porous insulating member is disposed between the electrode precursor and the counter electrode unit (51, 52), and is configured not to be in contact with the electrode precursor. a doping tank (3, 5, 203, 205, 207) configured to accommodate a solution including alkali metal ions; a conveying unit (9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 35, 37, 39, 41, 43, 45, 305, 307, 109, 311, 313, 315, 317, 119, 321, 323) configured to convey a strip-shaped electrode precursor including an active material layer along a path passing through the doping tank (3, 5, 203, 205, 207); a counter electrode unit (51, 52) configured to be accommodated in the doping tank (3, 5, 203, 205, 207); and a connection unit (15, 21, 25, 29, 61, 87, 89, 317, 321) configured to electrically connect the electrode precursor and the counter electrode unit (51, 52); characterized in that a porous insulating member is disposed between the electrode precursor and the counter electrode unit (51, 52), and is configured not to be in contact with the electrode precursor.
A motor, comprising: a stator frame housing a rotor and a stator in an electrical components housing space; an endshield at least partially covering an open end of the stator frame and housing a bearing in a bearing housing space and an oil reservoir; a fan cover guard housing a fan, wherein the endshield is positioned between the stator frame and the fan cover guard; a shaft to which each of the rotor and the bearing is connected, wherein the shaft defines a longitudinal axis; a channel that separates the bearing housing space from the oil reservoir and is configured to direct an air stream from the fan that moves in a downstream direction, wherein a radially inner wall of the channel includes a cylindrical wall between the channel and the bearing housing space and a radially outer wall of the channel includes a frusto-conical upstream wall that is configured to direct the air stream radially inward and a cylindrical downstream wall between the channel and the oil reservoir such that the channel is configured to direct the air stream: through the endshield; and from an upstream end of the channel, radially inward toward the bearing housing space to cool the bearing. a stator frame housing a rotor and a stator in an electrical components housing space; an endshield at least partially covering an open end of the stator frame and housing a bearing in a bearing housing space and an oil reservoir; a fan cover guard housing a fan, wherein the endshield is positioned between the stator frame and the fan cover guard; a shaft to which each of the rotor and the bearing is connected, wherein the shaft defines a longitudinal axis; a channel that separates the bearing housing space from the oil reservoir and is configured to direct an air stream from the fan that moves in a downstream direction, wherein a radially inner wall of the channel includes a cylindrical wall between the channel and the bearing housing space and a radially outer wall of the channel includes a frusto-conical upstream wall that is configured to direct the air stream radially inward and a cylindrical downstream wall between the channel and the oil reservoir such that the channel is configured to direct the air stream: through the endshield; and from an upstream end of the channel, radially inward toward the bearing housing space to cool the bearing. through the endshield; and from an upstream end of the channel, radially inward toward the bearing housing space to cool the bearing.
A refrigerator comprising a body, more than one compartment disposed inside the body, wherein fruits and vegetables are placed and more than one illumination unit that illuminates the inside of the compartment, having a power source and at least one LED having three different ends that can emit light in three different colors being red, green and blue when fed by the power source, characterized by - a microprocessor that provides the light having continuously changing wavelength to be emitted by controlling the application of the PWM signal having different duty cycles to the ends of the LED such that a certain range of the light spectrum is scanned, and - a synchronization unit that provides the illumination units illuminating the different one from another compartments to emit light in the same wavelength simultaneously. - a microprocessor that provides the light having continuously changing wavelength to be emitted by controlling the application of the PWM signal having different duty cycles to the ends of the LED such that a certain range of the light spectrum is scanned, and - a synchronization unit that provides the illumination units illuminating the different one from another compartments to emit light in the same wavelength simultaneously.
A vertical conduction electronic power device (51; 151) comprising: a body having a first and a second surface (70A, 70B) and comprising an epitaxial layer, of semiconductor material, and a substrate, the epitaxial layer being delimited by the first surface of the body and the substrate being delimited by the second surface of the body, the epitaxial layer housing at least a first and a second conduction region (56, 60) having a first conductivity type and an active channel region having a second conductivity type, the active channel region being arranged between the first and the second conduction regions; a plurality of insulated-gate regions (59; 109), which extend over the first surface of the body or within the epitaxial layer; wherein the substrate has at least one silicide region, which extends from the second surface of the body towards the epitaxial layer, wherein the substrate is formed by a plurality of silicide regions, which include the at least one silicide region, extend from the second surface of the body towards the epitaxial layer and surround a plurality of metal regions. a body having a first and a second surface (70A, 70B) and comprising an epitaxial layer, of semiconductor material, and a substrate, the epitaxial layer being delimited by the first surface of the body and the substrate being delimited by the second surface of the body, the epitaxial layer housing at least a first and a second conduction region (56, 60) having a first conductivity type and an active channel region having a second conductivity type, the active channel region being arranged between the first and the second conduction regions; a plurality of insulated-gate regions (59; 109), which extend over the first surface of the body or within the epitaxial layer; wherein the substrate has at least one silicide region, which extends from the second surface of the body towards the epitaxial layer, wherein the substrate is formed by a plurality of silicide regions, which include the at least one silicide region, extend from the second surface of the body towards the epitaxial layer and surround a plurality of metal regions.
A preform woven by shaped weaving, having an omega section comprising a web and a flange, at least one portion of said web and at least one portion of said flange comprising weft yarns (26, 28, 30) crossing on common warp yarns, characterized in that the weft yarns (26, 28, 30) of said web form an angle different from 90° with at least one portion of the warp yarns (20, 24) of said web.
A metal-ceramic substrate comprising - an insulation layer extending along a main extension plane and comprising a ceramic material, and - a metallization layer bonded to the insulation layer via a bonding surface, the bonding surface being limited by at least one edge in a plane extending parallel to the main extension plane, the edge being at least partially covered by a filler material and an edge region of the metallization layer adjoining the edge having a material weakening, and the material weakening being formed as a recess, characterized in that - the filler material overlaps the additional edge (K') and filling a recess on the upper side of the metallization and/or - a ratio between the metallization thickness and the filler material height assumes a value between 0.5 and 0.9, preferably between 0.6 and 0.8 and particularly preferably substantially 0.75 and/or - the filler material is flush with the additional edge (K') in a direction perpendicular to the main extension plane. - an insulation layer extending along a main extension plane and comprising a ceramic material, and - a metallization layer bonded to the insulation layer via a bonding surface, the bonding surface being limited by at least one edge in a plane extending parallel to the main extension plane, the edge being at least partially covered by a filler material and an edge region of the metallization layer adjoining the edge having a material weakening, and the material weakening being formed as a recess, characterized in that - the filler material overlaps the additional edge (K') and filling a recess on the upper side of the metallization and/or - a ratio between the metallization thickness and the filler material height assumes a value between 0.5 and 0.9, preferably between 0.6 and 0.8 and particularly preferably substantially 0.75 and/or - the filler material is flush with the additional edge (K') in a direction perpendicular to the main extension plane.
Device for operating a generator, which provides a power supply to a towed unit, such as a trailer or a semi-trailer, which has a half-axle which is provided with a running wheel and is connected to the vehicle frame via a pivot lever and a bracket arranged on the bottom of a vehicle frame, the pivot lever being pivotable around a pivot axle at the end facing the bracket and being provided with a pulley which is rotatable around the pivot axle and is driven by the running wheel via a first belt, the running wheel being arranged in a central region in relation to a longitudinal axis of the vehicle frame and at or near a slip-free position of the towed unit, characterized in that the pulley drives a generator via a second belt, which generator is fastened to the vehicle frame and is intended to deliver electrical energy for supply.