mhurhangee/patent-ind-claim-en huggingface dataset:
A welding-type power supply (100; 202), comprising: a power conversion circuit configured to convert input power to welding-type power and to output the welding-type power to a welding-type torch ; a communication circuit (134; 206) configured to receive a control signal from a remote control device during a welding-type operation; and a control circuit (160; 112), characterised in that the control circuit (160; 112) is configured to synergically control a voltage of the welding-type power and a wire feed speed during the welding type operation based on the control signal by: setting a commanded power level of the welding-type power based on the control signal ; determining the voltage and the wire feed speed corresponding to the commanded power level; controlling the power conversion circuit to output the voltage; and controlling a wire feeder based on the wire feed speed. a power conversion circuit configured to convert input power to welding-type power and to output the welding-type power to a welding-type torch ; a communication circuit (134; 206) configured to receive a control signal from a remote control device during a welding-type operation; and a control circuit (160; 112), setting a commanded power level of the welding-type power based on the control signal ; determining the voltage and the wire feed speed corresponding to the commanded power level; controlling the power conversion circuit to output the voltage; and controlling a wire feeder based on the wire feed speed.
A positionable robot cell for arrangement on a sheet metal processing device, such as on a bending machine or on a press brake, with a frame for receiving a robot and with at least one receiving device for at least one workpiece and with a positioning device for repositioning the robot cell , at least one first sensor device being provided for detecting the position of the robot cell relative to the sheet metal processing device, with at least one handling device being provided for handling workpieces, which comprises at least one robot , advantageously a multi-axis robot, characterized in that at least the first sensor device is provided on the at least one handling device and is self-recognizing and advantageously automatically self-recognizing.
A machine for the magnetic stimulation of a tissue of a body, comprising: - a coil that generates a magnetic field; - a first displacement mechanism connected to the coil and to a support surface (S); wherein the first displacement mechanism is configured to move the coil around the tissue to stimulate it; and - a control circuit connected to the first displacement mechanism , wherein the control circuit is configured to control the movement of the displacement mechanism ; characterized by the machine being configured to: a) operatively dispose the coil on the tissue; b) generate a magnetic field by means of the coil ; and c) move the coil according to a certain movement pattern around the tissue to stimulate it, wherein in the step c), the movement pattern changes the orientation of the coil and thereby changes the direction of the magnetic field that stimulates the tissue. - a coil that generates a magnetic field; - a first displacement mechanism connected to the coil and to a support surface (S); wherein the first displacement mechanism is configured to move the coil around the tissue to stimulate it; and - a control circuit connected to the first displacement mechanism , wherein the control circuit is configured to control the movement of the displacement mechanism ; a) operatively dispose the coil on the tissue; b) generate a magnetic field by means of the coil ; and c) move the coil according to a certain movement pattern around the tissue to stimulate it,
A lever device comprising: a lever ; a shaft having a longitudinal axis and including two ends ; a housing including opposing side walls through each of which a through hole extends, wherein the housing pivotally supports the two ends of the shaft in the through holes of the opposing side walls; a shaft coupling portion included in the lever and including an insertion bore through which the shaft is inserted; a lever support included in the shaft , wherein the lever support is located in the insertion bore of the shaft coupling portion and supports the lever so that the lever is movable in multiple directions including a first direction (F1) and a second direction (F2) that intersects with the first direction (F1); and a contact portion included in one or each of the housing and the lever or located between the housing and the lever , wherein the contact portion includes a curved surface that allows the lever to move in the first direction (F1) and the second direction (F2) with the lever and the housing in contact with each other, characterized in that the contact portion is included in the shaft coupling portion . a lever ; a shaft having a longitudinal axis and including two ends ; a housing including opposing side walls through each of which a through hole extends, wherein the housing pivotally supports the two ends of the shaft in the through holes of the opposing side walls; a shaft coupling portion included in the lever and including an insertion bore through which the shaft is inserted; a lever support included in the shaft , wherein the lever support is located in the insertion bore of the shaft coupling portion and supports the lever so that the lever is movable in multiple directions including a first direction (F1) and a second direction (F2) that intersects with the first direction (F1); and a contact portion included in one or each of the housing and the lever or located between the housing and the lever , wherein the contact portion includes a curved surface that allows the lever to move in the first direction (F1) and the second direction (F2) with the lever and the housing in contact with each other, characterized in that the contact portion is included in the shaft coupling portion .
A method for designing a virtual mould used for manufacturing a corresponding physical mould adapted to be used in manufacturing of a dental restoration for a patient, wherein the method comprises: - obtaining a 3D representation of the patient's set of teeth comprising a restoration site where the manufactured dental restoration is adapted to be arranged; - virtually designing at least a first layer and a second layer of the dental 2. restoration , where the first layer is part of a first portion of the dental restoration, and where the combination of the first portion and the second layer provides at least part of the dental restoration; and - virtually designing the mould , which is adapted for the manufacturing of the second layer, where the inside surface of the mould is adapted to match the combination of the first portion and the second layer, where the inside surface of the mould corresponds to the shape of the dental restoration; where virtually designing the mould comprises designing a virtual retention structure of the mould, where the corresponding physical retention structure is applicable in retaining the first portion of the dental restoration 2. in its correct position in the mould. - obtaining a 3D representation of the patient's set of teeth comprising a restoration site where the manufactured dental restoration is adapted to be arranged; - virtually designing at least a first layer and a second layer of the dental 2. restoration , where the first layer is part of a first portion of the dental restoration, and where the combination of the first portion and the second layer provides at least part of the dental restoration; and - virtually designing the mould , which is adapted for the manufacturing of the second layer, where the inside surface of the mould is adapted to match the combination of the first portion and the second layer, where the inside surface of the mould corresponds to the shape of the dental restoration; where virtually designing the mould comprises designing a virtual retention structure of the mould, where the corresponding physical retention structure is applicable in retaining the first portion of the dental restoration 2. in its correct position in the mould.
A yoke cover for use in a torque detection device including paired detection coils having impedance varied by torque generated at a rotary shaft and configured to detect the torque in accordance with output voltage of the detection coils , the single yoke cover interposed between two electromagnetic yokes axially facing each other and fitted to inner circumferences of cylindrical portions of the two electromagnetic yokes to retain the two electromagnetic yokes , the yoke cover comprising a plurality of circumferentially aligned protrusions extending radially outward from the inner circumferences of the electromagnetic yokes , engaging with a plurality of circumferentially aligned dent portions provided at ends facing each other of the two electromagnetic yokes to butt the dent portions , and each having a dented surface (A, B) in an axial end surface , and an axial length (L2) of the protrusion is shorter than an axial length (L1) of an inner circumferential portion of the yoke cover .
A process for depositing nanostructured material onto a particulate substrate material comprising the steps of: a) preparing a precursor material dissolved in an aqueous or organic solvent; b) forming an atomised dispersion containing nanophased material by subjecting said precursor material to thermochemical conversion at elevated temperature, said nanophased material predominantly comprised of nanosized material having an average particle size of less than 100 nm and average grain size of less than 20 nm; c) contacting the atomised dispersion of nanophased material with mobile and particulate substrate material in a fluidised bed to coat the substrate material particles with nanostructured material comprising a nanophased material coating containing at least one phase predominantly comprised of nanosized grains of the precursor material wherein flame spray pyrolysis processes are used for thermochemical conversion. a) preparing a precursor material dissolved in an aqueous or organic solvent; b) forming an atomised dispersion containing nanophased material by subjecting said precursor material to thermochemical conversion at elevated temperature, said nanophased material predominantly comprised of nanosized material having an average particle size of less than 100 nm and average grain size of less than 20 nm; c) contacting the atomised dispersion of nanophased material with mobile and particulate substrate material in a fluidised bed to coat the substrate material particles with nanostructured material comprising a nanophased material coating containing at least one phase predominantly comprised of nanosized grains of the precursor material
A method of determining the reliability of a low resolution cartography to reliably activate at least one driver assistance system of an autonomous vehicle, the autonomous vehicle traveling on a road and comprising a navigation system and a perception system, the navigation system comprising the cartography and providing at least one slope and at least one curvature of the road around the vehicle, the slope being mapped and the curvature being mapped, the perception system providing a slope and a path of the road around the vehicle, the slope being measured and the path being measured, the method being characterized in that it is performed to regularly update when the vehicle is traveling on the road, and to perform the following steps: · Determination of a so-called cartographic lane, starting from at least the cartographic curvature; · Determination of an inclination indicator indicating a match between the inclination imaged and the measured inclination, wherein the inclination indicator is a number between 0 and 1 and the value 1 indicates a strong match and the value 0 indicates a non-match; · Determination of a trajectory indicator indicating a match between the trajectory imaged and the trajectory measured, wherein the trajectory indicator is a number between 0 and 1 and the value 1 indicates a strong match and the value 0 indicates a mismatch; · Calculation of a correlation value from the slope indicator and the trajectory indicator; · Determination of a reliable or unreliable indicator of the reliability of the mapping, the indicator being reliable if the correlation value exceeds a predetermined threshold value. · Determination of a so-called cartographic lane, starting from at least the cartographic curvature; · Determination of an inclination indicator indicating a match between the inclination imaged and the measured inclination, wherein the inclination indicator is a number between 0 and 1 and the value 1 indicates a strong match and the value 0 indicates a non-match; · Determination of a trajectory indicator indicating a match between the trajectory imaged and the trajectory measured, wherein the trajectory indicator is a number between 0 and 1 and the value 1 indicates a strong match and the value 0 indicates a mismatch; · Calculation of a correlation value from the slope indicator and the trajectory indicator; · Determination of a reliable or unreliable indicator of the reliability of the mapping, the indicator being reliable if the correlation value exceeds a predetermined threshold value.
Canister steam and vacuum cleaner, comprising a main body , said main body comprising vacuum and filtering means together with steam generation means , wherein said main body has height, width and length dimensions such that at least one of said dimensions is equal to or less than 300 mm, preferably equal to or less than 280 mm, more preferably equal to or less than 270 mm, wherein the vacuum and filtering means comprise: an engine , a fan , activated by said engine, and one or more filtering section(s) , wherein the fan and the engine are placed over the one or more filtering section(s) , along the prosecution of the longitudinal axis of the one or more filtering section(s) . a fan , activated by said engine, and one or more filtering section(s) , wherein the fan and the engine are placed over the one or more filtering section(s) , along the prosecution of the longitudinal axis of the one or more filtering section(s) .
A device comprising: a rigid structure having a planar surface; a second rigid structure ; a curved convex reflector fixed to the planar surface of the rigid structure; three or more photodetectors each operable to measure an illuminance of light incident on the photodetector; a light emitter operable to project light toward the curved reflector, wherein the curved reflector reflects respective portions of the projected light onto the three or more photodetectors, wherein the three or more photodetectors and the light emitter are fixed to a surface of the second rigid structure, wherein the light emitter and the three or more photodetectors are fixed with respect to each other, and wherein the rigid structure is movable in one or more degrees of freedom with respect to the light emitter and the three or more photodetectors; and at least one processor configured to perform operations comprising: measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement. a rigid structure having a planar surface; a second rigid structure ; a curved convex reflector fixed to the planar surface of the rigid structure; three or more photodetectors each operable to measure an illuminance of light incident on the photodetector; a light emitter operable to project light toward the curved reflector, wherein the curved reflector reflects respective portions of the projected light onto the three or more photodetectors, wherein the three or more photodetectors and the light emitter are fixed to a surface of the second rigid structure, wherein the light emitter and the three or more photodetectors are fixed with respect to each other, and wherein the rigid structure is movable in one or more degrees of freedom with respect to the light emitter and the three or more photodetectors; and at least one processor configured to perform operations comprising: measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement. measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement.
Transport and rolling-up aid for uniaxial reinforcing steel bar mats, comprising: - a first round support area , - a second round support area , - a connecting region arranged between the first support region and the second support region and axially spacing them apart, wherein the first round support region has a first edge region , wherein the second round support region has a second edge region , wherein a longitudinal axis of the connecting region is displaced parallel to a straight line connecting the first edge region and the second edge region , wherein the connecting region forms with the first support region a first clamping region , which is bounded by the connecting region and by the first support region , wherein the connecting region forms with the second support region a second clamping region , which is bounded by the connecting region and by the second support region , so that the first clamping area and the second clamping area together form a receptacle in which a reinforcing steel bar of a uniaxial reinforcing steel bar mat can be reversibly clamped. - a first round support area , - a second round support area , - a connecting region arranged between the first support region and the second support region and axially spacing them apart, wherein the first round support region has a first edge region , wherein the second round support region has a second edge region , wherein a longitudinal axis of the connecting region is displaced parallel to a straight line connecting the first edge region and the second edge region , wherein the connecting region forms with the first support region a first clamping region , which is bounded by the connecting region and by the first support region , wherein the connecting region forms with the second support region a second clamping region , which is bounded by the connecting region and by the second support region , so that the first clamping area and the second clamping area together form a receptacle in which a reinforcing steel bar of a uniaxial reinforcing steel bar mat can be reversibly clamped.
Motor-adjustable steering column for a motor vehicle, comprising a casing unit in which a steering spindle can be mounted so as to rotate about a longitudinal axis (L), and which has an inner casing which can be telescoped relative to an outer casing in the direction of the longitudinal axis (L) and is arranged in the outer casing , and a motor-adjustment drive which is coupled to the inner casing and the outer casing wherein a pretensioning device is provided, which has a pressure piece supported on the outer casing and braceable against the inner casing , wherein the pretensioning device has a guide device cooperating with the pressure piece for linear guidance of the inner casing relative to the outer casing in the direction of the longitudinal axis (L), wherein the guide device has positive-locking elements , the guide device having a first guide element on the inner casing , and a second guide element corresponding thereto on the pressure piece , which is guided on the first guide element so as to be movable in the direction of the longitudinal axis (L) characterized in in that the guide elements comprise a guide groove formed in one piece by plastic deformation into the inner casing or the outer casing and designed as a bead-shaped depression, and a guide projection engaging therein. wherein a pretensioning device is provided, which has a pressure piece supported on the outer casing and braceable against the inner casing , wherein the pretensioning device has a guide device cooperating with the pressure piece for linear guidance of the inner casing relative to the outer casing in the direction of the longitudinal axis (L), wherein the guide device has positive-locking elements , the guide device having a first guide element on the inner casing , and a second guide element corresponding thereto on the pressure piece , which is guided on the first guide element so as to be movable in the direction of the longitudinal axis (L) characterized in in that the guide elements comprise a guide groove formed in one piece by plastic deformation into the inner casing or the outer casing and designed as a bead-shaped depression, and a guide projection engaging therein.
A working fluid for a heat cycle, comprising: trifluoroethylene; and trifluoroiodomethane as a first component; wherein a ratio of an amount of the trifluoroethylene with respect to the total amount of the trifluoroethylene and the trifluoroiodomethane is 60 mass% or more and 80 mass% or less. trifluoroethylene; and trifluoroiodomethane as a first component; wherein a ratio of an amount of the trifluoroethylene with respect to the total amount of the trifluoroethylene and the trifluoroiodomethane is 60 mass% or more and 80 mass% or less.
An allulose epimerase variant consisting of any one amino acid sequence selected from the amino acid sequence represented by SEQ ID NO: 2, the amino acid sequence represented by SEQ ID NO: 11, or the amino acid sequence represented by SEQ ID NO: 13.