mhurhangee/ep-ind-claims huggingface dataset:
A quantum computing system comprising: a plurality of qubits, wherein each qubit comprises: a pair of atoms; and a negative index lens disposed between the pair of atoms; control circuitry operatively connected to the negative index lenses, the control circuitry being operable to switch the negative index lenses between a negative index state and a positive index state; atomic state reading circuitry configured to determine atomic spin states of the atoms; and an excitation source configured to excite the atoms. a plurality of qubits, wherein each qubit comprises: a pair of atoms; and a negative index lens disposed between the pair of atoms; a pair of atoms; and a negative index lens disposed between the pair of atoms; control circuitry operatively connected to the negative index lenses, the control circuitry being operable to switch the negative index lenses between a negative index state and a positive index state; atomic state reading circuitry configured to determine atomic spin states of the atoms; and an excitation source configured to excite the atoms.
A cutting machine, comprising - a table having a planar working surface lying in a working surface plane, the working surface configured to receive an object to be cut, - a light curtain device and a protective pane, wherein the light curtain device is designed to generate a light curtain, - a crossbeam arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H 1), - a module, in particular for receiving tools, mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis, wherein the second horizontal axis extends at right angles to the first horizontal axis, and - a control unit designed to control the cutting machine, characterized in that the cutting machine has two operating states, wherein in a first operating state the protective pane on one side of the table is below the working surface plane, and wherein in a second operating state both the protective pane and the light curtain, which can be generated by the light curtain device, on the side of the table are at least partially above the working surface plane, wherein in the second operating state the light curtain is at least partially above the protective pane. - a table having a planar working surface lying in a working surface plane, the working surface configured to receive an object to be cut, - a light curtain device and a protective pane, wherein the light curtain device is designed to generate a light curtain, - a crossbeam arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H 1), - a module, in particular for receiving tools, mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis, wherein the second horizontal axis extends at right angles to the first horizontal axis, and - a control unit designed to control the cutting machine,
Agricultural machine (100, 100a-100c) with at least one pickup device (200, 200a-200c), wherein the pickup device (200, 200a-200c) comprises at least one pickup roller (1, 1a, 1b) rotatable in a rotation (R 1), with at least two roller elements (25a-25d), with conveyor tines (2, 2a, 2b) for the take-up of fodder or stalk stock from an agricultural land, and wherein the pickup device (200, 200a-200c) comprises at least one running and supporting device (300, 300a-300i), wherein the running and supporting device (300, 300a-300i) of the pickup device (200, 200a-200c) comprises exclusively sliding plates (4, 4a-4j) with an approximately circular or oval, convexly curved edge (16a, 16b), and the running and supporting device forms a frontmost point of the sliding plate (4, 4a-4j) in a driving direction, from which point a vertical to a flight circle of the conveyor tines represents at least one tangent or a secant, and the running and supporting devices (300, 300a-300i) are fastened in the front fastening (15, 15a-15e) to a frame front portion (19, 19a) of pickup device (200, 200a-200c) and by means of at least one stabilizer (12, 12a-12i) in a rear fastening (30, 30a-30d) to a frame rear portion (14, 14a), 14b) of the pick-up device (200, 200a-200c), wherein between the stabilizer (12, 12a-12i) and the rear fastening (30, 30a-30d) at least one leaf spring (13, 13a-13d) is arranged, characterized in that one sliding plate (4, 4a-4j) each is arranged in the middle of each roller element (25a-25d).
Domestic appliance with an appliance door, which comprises a latching hook with a latching opening for penetrating a displaceable plunger, characterised in that the domestic appliance comprises an actuating facility for displacing the plunger, so that in a locked state of the appliance door a form-fit connection between the latching hook and the plunger is achieved and in an unlocked state of the appliance door a frictional connection between the latching hook and the plunger is achieved, wherein the actuating facility is embodied to shift the displaceable plunger into the latching opening to produce the form-fit connection between the latching hook and the plunger, wherein the plunger comprises an oblique side for exerting the frictional connection on an edge of the latching opening in the unlocked state of the appliance door, wherein the actuation facility comprises a coil for exerting a force on the displaceable plunger.
Disposable injector having a housing and having a trigger device comprising a mechanical energy store, an actuating plunger and a trigger sleeve, characterized - in that the actuating plunger and the housing have mutually facing blocking surfaces (17, 72), between which at least one displacement body can be disposed, - in that the actuating plunger is pivotable about the longitudinal axis of the disposable injector and comprises displacer segments arranged offset from the blocking surfaces (17, 72), so that the displacer segments can be brought into contact with the displacement body, - in that, by means of a shifting of the trigger sleeve in the direction of the longitudinal axis, a travel limitation of the displacer body subjected to load by means of the displacer segment can be lifted for the release of the energy store, - in that it comprises an adapter assembly, positively connected to the actuating plunger, for receiving a cylinder piston unit, and in that the adapter assembly is pivotable relative to the housing. - in that the actuating plunger and the housing have mutually facing blocking surfaces (17, 72), between which at least one displacement body can be disposed, - in that the actuating plunger is pivotable about the longitudinal axis of the disposable injector and comprises displacer segments arranged offset from the blocking surfaces (17, 72), so that the displacer segments can be brought into contact with the displacement body, - in that, by means of a shifting of the trigger sleeve in the direction of the longitudinal axis, a travel limitation of the displacer body subjected to load by means of the displacer segment can be lifted for the release of the energy store, - in that it comprises an adapter assembly, positively connected to the actuating plunger, for receiving a cylinder piston unit, and in that the adapter assembly is pivotable relative to the housing.
Method for operating a battery having a plurality of batter cells, comprising the steps of: a) using the electrical energy from the battery for an electric drive in a vehicle which provides drive energy in order to move the vehicle, b) determining the battery energy storage capacity, c) removing the battery from the vehicle when the battery energy storage capacity has reached a predetermined threshold value, d) changing an electrical wiring of poles (24, 26) of the battery cells, characterised in that the electrical wiring of the poles (24, 26) of the battery cells is changed by a cover element for the battery, which comprises first connecting elements (14, 16, 18) designed to electrically connect the poles, being replaced by another cover element which comprises second connecting elements (30, 32, 34, 36) designed to electrically connect the poles (24, 26). a) using the electrical energy from the battery for an electric drive in a vehicle which provides drive energy in order to move the vehicle, b) determining the battery energy storage capacity, c) removing the battery from the vehicle when the battery energy storage capacity has reached a predetermined threshold value, d) changing an electrical wiring of poles (24, 26) of the battery cells,
A control apparatus comprising: an acquisition unit configured to acquire optical information; a tilt control unit configured to tilt an image sensor relative to a plane orthogonal to an optical axis of an imaging optical system; and a calculation unit configured to calculate a bit shift amount by a phase difference detection method based on signals from the image sensor and to calculate a defocus amount based on the bit shift amount and a conversion coefficient, characterized in that the calculation unit changes the conversion coefficient based on the optical information and a tilt angle that is an angle formed by the image sensor and the plane, wherein at least one processor or circuit is configured to perform a function of at least one of the units, and the bit shift amount is a correlation degree between the signals. an acquisition unit configured to acquire optical information; a tilt control unit configured to tilt an image sensor relative to a plane orthogonal to an optical axis of an imaging optical system; and a calculation unit configured to calculate a bit shift amount by a phase difference detection method based on signals from the image sensor and to calculate a defocus amount based on the bit shift amount and a conversion coefficient, characterized in that the calculation unit changes the conversion coefficient based on the optical information and a tilt angle that is an angle formed by the image sensor and the plane, wherein at least one processor or circuit is configured to perform a function of at least one of the units, and the bit shift amount is a correlation degree between the signals.
An IC chip mounting apparatus comprising: a conveyor (81, 82) configured to convey an antenna continuous body on a conveying surface, the antenna continuous body having a base material and plural inlay antennas continuously formed on the base material; an ejection unit configured to eject a thermosetting adhesive toward a reference position (Pref) of each antenna in the antenna continuous body; an IC chip placement unit configured to place an IC chip on the adhesive that is located on the reference position (Pref) of each antenna in the antenna continuous body; and a first light irradiator configured to irradiate the adhesive of each antenna with a first light, in the vicinity of a position where an IC chip is located on the conveying surface, characterized by further comprising: a second light irradiator configured to irradiate the adhesive of each antenna with a second light, at a position downstream from a position where the adhesive is irradiated with the first light. a conveyor (81, 82) configured to convey an antenna continuous body on a conveying surface, the antenna continuous body having a base material and plural inlay antennas continuously formed on the base material; an ejection unit configured to eject a thermosetting adhesive toward a reference position (Pref) of each antenna in the antenna continuous body; an IC chip placement unit configured to place an IC chip on the adhesive that is located on the reference position (Pref) of each antenna in the antenna continuous body; and a first light irradiator configured to irradiate the adhesive of each antenna with a first light, in the vicinity of a position where an IC chip is located on the conveying surface, characterized by further comprising: a second light irradiator configured to irradiate the adhesive of each antenna with a second light, at a position downstream from a position where the adhesive is irradiated with the first light.
A method for calibrating a dental camera, which method is based on a fringe projection method for the three-dimensional optical measurement of a dental object, comprising a projection grating for generating a projection pattern made up of several fringes, and an optical system which projects the generated projection pattern onto the object to be measured; wherein a reference surface with known dimensions is measured by means of the dental camera using the fringe projection method, and in the process actual coordinates (33, 36) of several measurement points on the reference surface are determined; wherein the determined actual coordinates (33, 36) are compared to known target coordinates of the measurement points on the reference surface with known dimensions; wherein - proceeding from the deviations (35, 37) between the actual coordinates (33, 36) and the target coordinates - several compensation values (40, 50, 51, 52, 53) are calculated for the individual fringes of the projection pattern; wherein during the measurement of the dental object the calculated compensation values (40, 50, 51, 52, 53) are taken into account in order to compensate for the deviations (35, 37) between the actual coordinates (33, 36) and the target coordinates; wherein the calibration is carried out by means of a calibration device which comprises a first holding device for the dental camera and a second holding device for a reference surface; wherein the first holding device can be adjusted relative to the second holding device such that several defined distances and/or alignments between the dental camera and the reference surface can be set; wherein the distance and the alignment of the dental camera relative to the reference surface is changed in defined steps via the rotation of the first holding device relative to the second holding device by means of a thread; wherein the flat reference surface is arranged on the second holding device at an angle between 50° and 70° relative to a center axis of the thread.
An aerosol-generating article comprising: an aerosol-generating substrate, a downstream section extending from a downstream end of the aerosol-generating substrate to a downstream end of the aerosol-generating article, wherein the downstream section comprises a first ventilation zone for providing ventilation into the downstream section, the first ventilation zone extending from a downstream end to an upstream end, the upstream end being less than 5 millimetres from the downstream end of the aerosol-generating substrate, wherein a resistance to draw of the downstream section is less than 10 mm H2O, and wherein the first ventilation zone comprises a porous portion of the downstream section having a ventilation of at least 20 percent. an aerosol-generating substrate, a downstream section extending from a downstream end of the aerosol-generating substrate to a downstream end of the aerosol-generating article, wherein the downstream section comprises a first ventilation zone for providing ventilation into the downstream section, the first ventilation zone extending from a downstream end to an upstream end, the upstream end being less than 5 millimetres from the downstream end of the aerosol-generating substrate, wherein a resistance to draw of the downstream section is less than 10 mm H2O, and wherein the first ventilation zone comprises a porous portion of the downstream section having a ventilation of at least 20 percent.
Roof assembly for attachment to reinforcement beams (6, 14) in a fixed roof of a vehicle, comprising: a frame surrounding at least a part of an opening and configured to be attached to the reinforcement beams of the vehicle, said frame being made primarily of plastic material, a first stationary panel which is at least partly semi-transparent and is at least partly fixed to the frame, at least one movable panel, arranged behind the first stationary panel, which movable panel is movable at least between a closed position and a rearwardly and upwardly inclined venting position, a second stationary panel, arranged behind the at least one movable panel, and a reinforcement integrated in the frame, characterized in that the at least one movable panel is a ventilation panel which is short in longitudinal direction and in that the reinforcement extends at least around an area covered by the ventilation panel, and along at least a portion of the frame configured to be attached to the reinforcement beams of the vehicle. a frame surrounding at least a part of an opening and configured to be attached to the reinforcement beams of the vehicle, said frame being made primarily of plastic material, a first stationary panel which is at least partly semi-transparent and is at least partly fixed to the frame, at least one movable panel, arranged behind the first stationary panel, which movable panel is movable at least between a closed position and a rearwardly and upwardly inclined venting position, a second stationary panel, arranged behind the at least one movable panel, and a reinforcement integrated in the frame, characterized in that the at least one movable panel is a ventilation panel which is short in longitudinal direction and in that the reinforcement extends at least around an area covered by the ventilation panel, and along at least a portion of the frame configured to be attached to the reinforcement beams of the vehicle.
A method for determining a blood pressure contour curve comprising: placing a photo-plethysmographic system over an artery in a human finger, the PPG system producing a PPG signal based on volume of the artery, the PPG system including at least one light source and at least one light detector; wherein a cuff is applied to the artery of the finger and pressure in the cuff is controlled by the PPG signal; characterised in that a component of the PPG signal having a frequency higher than a predefined threshold frequency is modified; and a new blood pressure is calculated using the cuff pressure and the modified PPG signal. placing a photo-plethysmographic system over an artery in a human finger, the PPG system producing a PPG signal based on volume of the artery, the PPG system including at least one light source and at least one light detector; wherein a cuff is applied to the artery of the finger and pressure in the cuff is controlled by the PPG signal; characterised in that a component of the PPG signal having a frequency higher than a predefined threshold frequency is modified; and a new blood pressure is calculated using the cuff pressure and the modified PPG signal.
An external charger for wirelessly providing energy to an implantable medical device, IMD, comprising: a charging coil configured when energized by a drive signal to produce a magnetic field with a power to wirelessly provide energy to the IMD as a coupled system; a sense coil, wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry configured to determine from a plurality of parameters each determinable using the induced signal how to adjust the power of the magnetic field. a charging coil configured when energized by a drive signal to produce a magnetic field with a power to wirelessly provide energy to the IMD as a coupled system; a sense coil, wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry configured to determine from a plurality of parameters each determinable using the induced signal how to adjust the power of the magnetic field.
A system for calculating location(s) and/or range(s) of object(s) in a scene external to an aircraft, the system comprising: a light projector (28L, 28R; 28) configured to be mounted at a projector location on the aircraft and to project pulses of linearly-patterned light in a controllable elevation or azimuth direction onto the scene external to the aircraft, wherein the linearly-patterned light appears as a reflected line (54, 58) on the object(s) in the scene; a camera (30L, 30R; 30) having a two dimensional array of light-sensitive pixels arranged in rows and columns of the light-sensitive pixels, the camera (30L, 30R; 30) configured to be mounted at a camera location on the aircraft and aligned such that the reflected line (54, 58) is imaged by a selected one of the rows or columns that is geometrically aligned to the reflected pulse of linearly patterned light; a controller configured to coordinate the light projector (28L, 28R; 28) and the camera (30L, 30R; 30) by synchronizing the controllable elevation or azimuth direction of the projected pulses of linearly-patterned light with the selected one of the rows or columns, upon which the reflected line (54, 58) is received by the camera (30L, 30R; 30) and focused; and an image processor configured to calculate, based on the projector location, the camera location, and the reflected line (54, 58) imaged by the selected one of the rows or columns, locations(s) and/or range(s) of object(s) in the scene from which the pulses of linearly-patterned light projected by the light projector (28L, 28R; 28) are reflected. a light projector (28L, 28R; 28) configured to be mounted at a projector location on the aircraft and to project pulses of linearly-patterned light in a controllable elevation or azimuth direction onto the scene external to the aircraft, wherein the linearly-patterned light appears as a reflected line (54, 58) on the object(s) in the scene; a camera (30L, 30R; 30) having a two dimensional array of light-sensitive pixels arranged in rows and columns of the light-sensitive pixels, the camera (30L, 30R; 30) configured to be mounted at a camera location on the aircraft and aligned such that the reflected line (54, 58) is imaged by a selected one of the rows or columns that is geometrically aligned to the reflected pulse of linearly patterned light; a controller configured to coordinate the light projector (28L, 28R; 28) and the camera (30L, 30R; 30) by synchronizing the controllable elevation or azimuth direction of the projected pulses of linearly-patterned light with the selected one of the rows or columns, upon which the reflected line (54, 58) is received by the camera (30L, 30R; 30) and focused; and an image processor configured to calculate, based on the projector location, the camera location, and the reflected line (54, 58) imaged by the selected one of the rows or columns, locations(s) and/or range(s) of object(s) in the scene from which the pulses of linearly-patterned light projected by the light projector (28L, 28R; 28) are reflected.
Joint sealing strip comprising a foam, where the foam is equipped with at least one substance which reduces the thermal conductivity of the foam, characterized in that the foam is impregnated with an impregnating composition, where the impregnating composition contains the substance in the form of particles and the substance is an aerogel and/or pyrogenic silica.
System composed of a transponder read module for a fork shoe of a fork arm of an industrial truck having a transmission and/or receiving device and having an antenna, wherein at least the antenna is placed in a plastics housing and the transponder read module can be connected via a single connection cable, and a fork shoe for a fork arm of a load fork of an industrial truck, wherein a receiving space for a transponder read module is partitioned off by partitioning elements laterally in the longitudinal extent of the fork shoe and the fork shoe has a lateral opening for the region of the antenna of the transponder read module, characterized in that the transponder read module is able to be pushed into the receiving space from the end of the fork shoe.