mhurhangee/ep-ind-claims huggingface dataset:
A yarn winding device that unwinds a yarn from a yarn supplying section capable of supplying the yarn and winds the yarn on a winding tube (Bm) to form a package, the yarn winding device comprising a support member that supports the winding tube (Bm); a package rotational speed detecting section that detects a rotational speed of the package; a traversing drum capable of rotating by being in contact with the package thereby rotating the package while traversing the yarn; a drum driving section that rotationally drives the traversing drum; a drum rotational speed detecting section that detects a rotational speed of the traversing drum; a braking device that brakes rotation of the package; and a controlling section that controls the drum driving section and the braking device, characterized in that the controlling section, when decelerating the package while maintaining a state in which the package and the traversing drum are in contact with each other and the yarn is being wound on the package, controls the braking device based on a detection result obtained in each of the package rotational speed detecting section and the drum rotational speed detecting section such that a circumferential speed of the package is slower than a circumferential speed of the traversing drum.
A method of controlling a lighting device, the method comprising: - receiving a set of colors, selected by a user and rendered by further lighting devices, - determining a set of white points comprising a white point for each of a plurality of colors in the set of colors, - determining a single white point based on the set of white points, and - controlling the lighting device to emit white light according to the determined single white point. - receiving a set of colors, selected by a user and rendered by further lighting devices, - determining a set of white points comprising a white point for each of a plurality of colors in the set of colors, - determining a single white point based on the set of white points, and - controlling the lighting device to emit white light according to the determined single white point.
A push-button switch comprising: a substrate, on which an electric circuit is provided; a cursor (7; 107) movable along an actuation direction with a stroke between a rest position and a pressed position; a pad (4; 104) made of an elastic polymeric material and applied to the substrate; a pre-loading device configured to provide a pre-loading force to the cursor (7; 107) along the actuation direction toward the rest position; a dome-shaped metal switch member, directly arranged on the substrate in a seat between the pad (4; 104) and the substrate; wherein the cursor (7; 107) has a base coupled to the pre-loading device and is provided with an actuator member (20; 120) extending from the base parallel to the actuation direction and configured to actuate the switch member, the actuator member (20; 120) being aligned to the switch member and misaligned with respect to the pre-loading device. a substrate, on which an electric circuit is provided; a cursor (7; 107) movable along an actuation direction with a stroke between a rest position and a pressed position; a pad (4; 104) made of an elastic polymeric material and applied to the substrate; a pre-loading device configured to provide a pre-loading force to the cursor (7; 107) along the actuation direction toward the rest position; a dome-shaped metal switch member, directly arranged on the substrate in a seat between the pad (4; 104) and the substrate; wherein the cursor (7; 107) has a base coupled to the pre-loading device and is provided with an actuator member (20; 120) extending from the base parallel to the actuation direction and configured to actuate the switch member, the actuator member (20; 120) being aligned to the switch member and misaligned with respect to the pre-loading device.
A rotation detecting device which comprises: a plurality of magnetic encoders (2A, 2B) of a ring shape arranged coaxially and having different numbers of magnetic poles; a plurality of magnetic sensors (3A, 3B) each operable to detect the magnetic field of the corresponding magnetic encoder and having a function of detecting positional information within a single magnetic pole of the corresponding magnetic encoder; a phase difference detector for determining the corrected phase difference of magnetic field signals detected respectively by the magnetic sensors; an angle calculator for calculating an absolute rotation angle of the magnetic encoders based on the detected phase difference; and a correcting unit (12; 12A) for correcting an initial phase difference occurring in the magnetic field signals, detected respectively by the magnetic sensors, due to positions at which the magnetic encoders are fitted, wherein the correcting unit corrects the phase by a value corresponding to an initial phase difference data stored in a storage unit, and the corrected phase is inputted into the phase difference detector, which then determines a corrected phase difference. a plurality of magnetic encoders (2A, 2B) of a ring shape arranged coaxially and having different numbers of magnetic poles; a plurality of magnetic sensors (3A, 3B) each operable to detect the magnetic field of the corresponding magnetic encoder and having a function of detecting positional information within a single magnetic pole of the corresponding magnetic encoder; a phase difference detector for determining the corrected phase difference of magnetic field signals detected respectively by the magnetic sensors; an angle calculator for calculating an absolute rotation angle of the magnetic encoders based on the detected phase difference; and a correcting unit (12; 12A) for correcting an initial phase difference occurring in the magnetic field signals, detected respectively by the magnetic sensors, due to positions at which the magnetic encoders are fitted, wherein the correcting unit corrects the phase by a value corresponding to an initial phase difference data stored in a storage unit, and the corrected phase is inputted into the phase difference detector, which then determines a corrected phase difference.
System for inhibiting the cabin tilt, the cabin comprising manual tilt means that can be operated by means of an operation wrench or lever, said manual tilt means comprise a mobile part, suitable to be engaged by an operation wrench or lever, the system being characterized by comprising means for detecting an authorization condition, i.e. ON or OFF, and locking means, whereby said locking means are movable between a condition of consent and a condition of mechanical interference of the handling of said manual tilt means in relation to said condition of consent; said locking means being suitable to switch their consent or interference condition when an authorisation condition switches, and in that said locking means, in condition of interference, are suitable to mechanically interfere with said mobile part.
A protective fan guard with at least one mounting strut and at least one fastening device for fastening the mounting strut of the protective fan guard, having at least one first leg that extends in a longitudinal direction and engages over a plurality of guard bars of the protective fan guard, wherein the at least one first leg has a free longitudinal end and the fastening device is arranged in the vicinity of the free longitudinal end of the at least one leg, wherein the fastening device is formed by an at least partially cubiform or cuboidal fastening element and the fastening element has at least one insertion receptacle which extends in a first spatial direction and into which at least the first leg can be inserted, wherein the at least one insertion receptacle is embodied as a blind hole extending in the first spatial direction, and wherein the at least one insertion receptacle receives at least the first leg in a clamp fit or clearance fit.
A pool cleaning robot comprising: a housing; a propulsion mechanism configured to propel the pool cleaning robot along an interior surface of a pool; brushes to clean surfaces of the pool during a cleaning cycle; a filtering system; a suction mechanism to draw liquid from the pool through an inlet into the housing and to discharge it from an outlet; and a detachable module that is detachably coupled to the housing or to any other part of the pool cleaning robot, wherein the detachable module is a detachable battery; characterized in that the detachable battery is detacheably coupled to the housing or to any other part of the pool cleaning robot in a magnetic manner. a housing; a propulsion mechanism configured to propel the pool cleaning robot along an interior surface of a pool; brushes to clean surfaces of the pool during a cleaning cycle; a filtering system; a suction mechanism to draw liquid from the pool through an inlet into the housing and to discharge it from an outlet; and a detachable module that is detachably coupled to the housing or to any other part of the pool cleaning robot, wherein the detachable module is a detachable battery; characterized in that the detachable battery is detacheably coupled to the housing or to any other part of the pool cleaning robot in a magnetic manner.
A control system for controlling a multi-function cooking apparatus master and at least one multi-function cooking apparatus slave for jointly processing one or more food products, with each cooking apparatus providing a mechanical interface (251m, 253m) and an associated electrical interface (251e, 351e, 351e*) for the reception of a food processing vessel (260, 360, 261, 361, 461) wherein each master vessel fits into the interface of the at least one slave, the food processing vessel having at least one of a temperature control element and a torque and rotation transmission element, the at least one slave providing, in comparison with the master, a reduced functional scope with regards to at least one cooking function, the control system comprising: a recipe program interface configured to receive at least one recipe program for preparing one or more food products wherein the at least one recipe program includes machine readable recipe program instructions configured to control functions (240, 340) of a cooking apparatus (200, 300) for executing food processing steps in accordance with the at least one recipe program, and wherein, for each food processing step, the recipe program provides information about the technical capabilities required for the execution of the food processing step; a program analyzer module configured to identify, for a particular food processing step, at least one particular slave providing a reduced functional scope with technical capabilities which are sufficient to execute said particular food processing step, and to extract from the at least one recipe program a partition including a program instruction subset associated with the particular food processing step; and a recipe deployment module configured to deploy the extracted partition to the at least one particular slave for execution, and to deploy the remaining program partition of the recipe program to the master. a recipe program interface configured to receive at least one recipe program for preparing one or more food products wherein the at least one recipe program includes machine readable recipe program instructions configured to control functions (240, 340) of a cooking apparatus (200, 300) for executing food processing steps in accordance with the at least one recipe program, and wherein, for each food processing step, the recipe program provides information about the technical capabilities required for the execution of the food processing step; a program analyzer module configured to identify, for a particular food processing step, at least one particular slave providing a reduced functional scope with technical capabilities which are sufficient to execute said particular food processing step, and to extract from the at least one recipe program a partition including a program instruction subset associated with the particular food processing step; and a recipe deployment module configured to deploy the extracted partition to the at least one particular slave for execution, and to deploy the remaining program partition of the recipe program to the master.
A heat-resistant, austenitic cast steel having excellent machinability, which consists of by mass 0.4-0.55% of C, 1-2% of Si, 0.5-1.5% of Mn, 18-27% of Cr, 8-22% of Ni, 1.5-2.5% of Nb, 0.01-0.3% of N, 0.1-0.2% of S, and 0.02-0.15% of Al, the balance being Fe and inevitable impurities; a machinability index I expressed by the following formula: I = 100 × S + 75 × Al + 0.75 × Mn − 10 × C − 2 × Nb − 0.25 × Cr − 0.15 × Ni − 1.2 × N, wherein each element symbol represents % by mass of each element in the cast steel, meeting the condition of -3.0 ≤ I ≤ +14.0.
A lighting device comprising: a housing; a coupling member coupled to the housing; a reflector coupled between the housing and the coupling member; and a light source unit coupled to the coupling member to emit light toward the reflector, wherein the light source unit includes a first body and a second body, wherein at least one first portion of the first body is coupled to the coupling member, and wherein at least one second portion of the first body includes a light source module having a light to emit light toward the reflector, characterized in that the housing has at least one first opening, the coupling member has at least one second opening corresponding to the first opening of the housing, and a third opening (319, 329) for air circulation is provided between the first body and the second body. a housing; a coupling member coupled to the housing; a reflector coupled between the housing and the coupling member; and a light source unit coupled to the coupling member to emit light toward the reflector, wherein the light source unit includes a first body and a second body, wherein at least one first portion of the first body is coupled to the coupling member, and wherein at least one second portion of the first body includes a light source module having a light to emit light toward the reflector, characterized in that the housing has at least one first opening, the coupling member has at least one second opening corresponding to the first opening of the housing, and a third opening (319, 329) for air circulation is provided between the first body and the second body.
The nontherapeutic cosmetic use of a hydrolyzate of Hippophae rhamnoides cake for increasing the growth of the skin appendages and/or decreasing the loss thereof, advantageously of the hair; and/or for maintaining and/or increasing the biomechanical properties and/or the surface and/or textural properties of the skin appendages, advantageously of the hair; and/or for repairing damaged skin appendages, advantageously the hair.
An electronic watch comprising: an enclosure having a transparent cover defining a touch-sensitive surface; a display positioned within the enclosure and below the transparent cover; and a haptic device configured to produce a haptic output along the touch-sensitive surface, the haptic device comprising: a battery element electrically coupled to the display; a magnetic element coupled to the battery element; a coil assembly fixed with respect to the enclosure; and a drive circuit configured to provide an oscillating current to the coil assembly, the oscillating current inducing an oscillatory movement of the magnetic element and the battery element in a direction parallel to at least a portion of the display, the movement of the magnetic element and the battery element producing the haptic output. an enclosure having a transparent cover defining a touch-sensitive surface; a display positioned within the enclosure and below the transparent cover; and a haptic device configured to produce a haptic output along the touch-sensitive surface, the haptic device comprising: a battery element electrically coupled to the display; a magnetic element coupled to the battery element; a coil assembly fixed with respect to the enclosure; and a battery element electrically coupled to the display; a magnetic element coupled to the battery element; a coil assembly fixed with respect to the enclosure; and a drive circuit configured to provide an oscillating current to the coil assembly, the oscillating current inducing an oscillatory movement of the magnetic element and the battery element in a direction parallel to at least a portion of the display, the movement of the magnetic element and the battery element producing the haptic output.
A method, comprising: receiving, over a plurality of sensor channels, a plurality of signals generated by a plurality of sensors (202, 204, 206, 208, 210, 212) adapted to detect physical movement of a mobile device with respect to a plurality of coordinate axes; and delaying (510, 450, 460) a time at which at least one of the plurality of received signals is digitized to provide an output of digitized versions of the received plurality of signals synchronized with respect to a common point in time, wherein a delay between the plurality of sensor channels is eliminated by adjusting a sampling instant of an individual channel of the plurality of sensor channels. receiving, over a plurality of sensor channels, a plurality of signals generated by a plurality of sensors (202, 204, 206, 208, 210, 212) adapted to detect physical movement of a mobile device with respect to a plurality of coordinate axes; and delaying (510, 450, 460) a time at which at least one of the plurality of received signals is digitized to provide an output of digitized versions of the received plurality of signals synchronized with respect to a common point in time, wherein a delay between the plurality of sensor channels is eliminated by adjusting a sampling instant of an individual channel of the plurality of sensor channels.
A sensor device for determining forces exerted by a cyclist on a pedal of a bicycle, comprising: a plurality of sensors coupled to a substrate (704, 706); and wiring coupled to the sensors and the substrate (704, 706), wherein the sensors, the substrate (704, 706), and the wiring are housed inside a pedal spindle coupled to the pedal; characterized in that the substrate (704, 706) includes a first printed circuit board and a second printed circuit board coupled together at a predetermined angle, a first set of the sensors being coupled with the first printed circuit board and, a second set of the sensors being coupled with the second printed circuit board. a plurality of sensors coupled to a substrate (704, 706); and wiring coupled to the sensors and the substrate (704, 706), wherein the sensors, the substrate (704, 706), and the wiring are housed inside a pedal spindle coupled to the pedal; characterized in that the substrate (704, 706) includes a first printed circuit board and a second printed circuit board coupled together at a predetermined angle, a first set of the sensors being coupled with the first printed circuit board and, a second set of the sensors being coupled with the second printed circuit board.
An autopilot recoupling system for a rotorcraft, the rotorcraft having an automatic flight control system with multiple layers of flight augmentation, a manual flight mode and a coupled flight mode, the autopilot recoupling system comprising: a go-around input on a collective pitch control lever configured to initiate a go-around maneuver to discontinue a landing approach in the coupled flight mode and to generate an autopilot recoupling signal responsive to a single actuation in the manual flight mode; the autopilot recoupling system characterized by an autopilot recoupling signal processor communicably coupled to the go-around input, the autopilot recoupling signal processor configured to: receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system, thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode. a go-around input on a collective pitch control lever configured to initiate a go-around maneuver to discontinue a landing approach in the coupled flight mode and to generate an autopilot recoupling signal responsive to a single actuation in the manual flight mode; the autopilot recoupling system characterized by an autopilot recoupling signal processor communicably coupled to the go-around input, the autopilot recoupling signal processor configured to: receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system, thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode. receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system, thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode.
A rotation sensor for an injection device, the rotation sensor comprising: - a rotatable element configured for a mechanical engagement with a ratchet mechanism (90;190), the rotatable element comprising an outer rim and a hub is configured for transmission of a torque between the outer rim and the hub, - at least one sensor (220, 222, 224) attached to the rotatable element and configured to measure at least one of a mechanical force, a mechanical pressure or a mechanical strain at a portion of the rotatable element during a rotation of the rotatable element, - a processor connected to the at least one sensor (220, 222, 224) and configured to calculate an angle of rotation of the rotatable element on the basis of a sensor output of the at least one sensor (220, 222, 224). - a rotatable element configured for a mechanical engagement with a ratchet mechanism (90;190), the rotatable element comprising an outer rim and a hub is configured for transmission of a torque between the outer rim and the hub, - at least one sensor (220, 222, 224) attached to the rotatable element and configured to measure at least one of a mechanical force, a mechanical pressure or a mechanical strain at a portion of the rotatable element during a rotation of the rotatable element, - a processor connected to the at least one sensor (220, 222, 224) and configured to calculate an angle of rotation of the rotatable element on the basis of a sensor output of the at least one sensor (220, 222, 224).