mhurhangee/patent-ind-claim-en huggingface dataset:
Storage system comprising - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region (A) with a positive curvature and a second region (B) with a negative curvature, - a component which comprises a magnet arrangement (1.3) and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), wherein the magnet arrangement (1.3) is configured as a magnet array having magnets (1.31, 1.32, 1.33), namely a first magnet (1.31), a second magnet (1.32) and a third magnet (1.33), the poles of which are arranged with an offset with respect to one another in the first direction (x), wherein the first magnet (1.31) is arranged between the second magnet (1.32) and the third magnet (1.33) based on the first direction (x), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein the sensor element (1; 1') is arranged between the magnet arrangement (1.3) and the supporting magnet (1.6), wherein the domain wall conductor (1.1; 1.1') has an extent (X1) in the first direction (x), wherein the magnet pole of the second magnet (1.32) is arranged at a distance (X2) from the magnet pole of the third magnet (1.32) in the first direction (x), wherein the extent (X1) is shorter than the distance (X2). - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region (A) with a positive curvature and a second region (B) with a negative curvature, - a component which comprises a magnet arrangement (1.3) and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), wherein the magnet arrangement (1.3) is configured as a magnet array having magnets (1.31, 1.32, 1.33), namely a first magnet (1.31), a second magnet (1.32) and a third magnet (1.33), the poles of which are arranged with an offset with respect to one another in the first direction (x), wherein the first magnet (1.31) is arranged between the second magnet (1.32) and the third magnet (1.33) based on the first direction (x), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein the sensor element (1; 1') is arranged between the magnet arrangement (1.3) and the supporting magnet (1.6), wherein the domain wall conductor (1.1; 1.1') has an extent (X1) in the first direction (x), wherein the magnet pole of the second magnet (1.32) is arranged at a distance (X2) from the magnet pole of the third magnet (1.32) in the first direction (x), wherein the extent (X1) is shorter than the distance (X2).
A cooking appliance for cooking food, comprising: a main body having a cooking chamber formed therein; a first heating assembly provided inside the cooking chamber ; a second heating assembly provided outside the cooking chamber ; and a flow path connection member forming a flow path for introducing heated air generated by the second heating assembly into the cooking chamber through a side portion of the cooking chamber , wherein the main body further includes: a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion , characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion . a main body having a cooking chamber formed therein; a first heating assembly provided inside the cooking chamber ; a second heating assembly provided outside the cooking chamber ; and a flow path connection member forming a flow path for introducing heated air generated by the second heating assembly into the cooking chamber through a side portion of the cooking chamber , wherein the main body further includes: a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion , characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion . a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion , characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion .
Binder for hardening mold material mixtures comprising at least: - a polyol component, with the polyol component being a phenolic resin of the benzyl ether type; - a isocyanate component comprised of one or more isocyanate compounds with at least 2 isocyanate groups per molecule; wherein - the binder contains less than 3 weight percent of free phenol and - the saligenin content of the binder amounts to 1 to 16 weight percent and - the hydroxybenzyl alcohol content of the binder amounts to 1 to 26 weight percent, in each case with reference to the weight of the phenolic resin of the benzyl ether type, and the binder is further characterized by one or both of the following features: a) the binder contains free phenol and free hydroxybenzyl alcohol, and the weight ratio of free phenol to free hydroxybenzyl alcohol amounts to 1 : greater than 1.2; b) the binder contains free phenol and free saligenin (o-hydroxybenzyl alcohol), and the weight ratio of free phenol to free saligenin amounts to 1 : greater than 1.1. - a polyol component, with the polyol component being a phenolic resin of the benzyl ether type; - a isocyanate component comprised of one or more isocyanate compounds with at least 2 isocyanate groups per molecule; wherein - the binder contains less than 3 weight percent of free phenol and - the saligenin content of the binder amounts to 1 to 16 weight percent and - the hydroxybenzyl alcohol content of the binder amounts to 1 to 26 weight percent, a) the binder contains free phenol and free hydroxybenzyl alcohol, and the weight ratio of free phenol to free hydroxybenzyl alcohol amounts to 1 : greater than 1.2; b) the binder contains free phenol and free saligenin (o-hydroxybenzyl alcohol), and the weight ratio of free phenol to free saligenin amounts to 1 : greater than 1.1.
Ventilation device for ventilating and/or air-conditioning the room, wherein the ventilation device comprises a housing which comprises an air inlet and an air outlet , wherein an air flow path through the housing is configured between the air inlet and the air outlet , to which an air conveying device on the one hand and an air filter assigned to the air inlet , a heat exchanger and a condensate tray on the other hand are assigned, wherein the air filter covers the air inlet in such a way that only air filtered by the air filter enters the housing , wherein a slot outlet panel arranged on the housing and covering the air outlet is assigned to the air outlet , wherein the slot outlet panel is removably attached to the housing , wherein the air filter and the condensate tray are removably attached in the housing in such a way that they can be removed from the housing through the air outlet , wherein the air outlet comprises a width (B1), the condensate tray comprises a width (B2) and the air filter comprises a width (B3), wherein the width (B3) of the air filter is substantially smaller than the width (B1) of the air outlet , and wherein the width (B2) of the condensate tray is greater than the width (B1) of the air outlet , wherein the condensate tray is rotatably mounted in the housing by a rotatable bearing in such a way that it can be rotated between an operating position assigned to the heat exchanger and a removal position, and wherein in the removal position the condensate tray can be removed from the housing through the air outlet , wherein preferably the air filter can be removed from the housing past the condensate tray through the air outlet .
A device for the mechanical control of an electrical or electronic input unit, in particular for central console units of motor vehicles, wherein a sensing element for controlling a sensor unit and/or an actuator unit can be moved against a restoring force in an actuation direction relative to a base element , wherein a stop element is provided, which, by being positioned and fixed on the base element during assembly, limits the movement path of the sensing element to a predetermined gap, wherein a control element surrounds the stop element and a restoring element and the restoring element is a coil spring, characterised in that an extension sleeve for transmitting the spring force is arranged following the coil spring in an intermediate space between the stop element and the control element .
A charging device of a robot cleaner, the charging device comprising: a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, characterized in that the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor , wherein the induction signal guide member further comprises at least one pair of reflection units arranged to improve the linearity by restricting a transmission angle of the docking induction signal, and wherein the at least one pair of reflection units inwardly protrude from the guide and face each other to form a layer having a central opening arranged to provide an optical path to light emitted by the docking induction sensor . a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, characterized in that the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor , wherein the induction signal guide member further comprises at least one pair of reflection units arranged to improve the linearity by restricting a transmission angle of the docking induction signal, and wherein the at least one pair of reflection units inwardly protrude from the guide and face each other to form a layer having a central opening arranged to provide an optical path to light emitted by the docking induction sensor .
A power converter comprising: a power conversion circuitry , connectable to a power source , including: a converter coil , a switch connected to the converter coil to control current flowing through the converter coil from the power source , the power conversion circuitry including a converter output connectable to a converter load ; and parallel snubber circuitry having resonant circuitry connected in parallel with the converter coil, the resonant circuitry including a parallel snubber circuitry coil and a capacitor connected in series, the parallel snubber circuitry including a parallel snubber output connectable to a parallel snubber circuitry load ; and characterized by : a series snubber circuitry associated with the converter coil including a flyback transformer in series with the converter coil with respect to the power source, a series snubber circuitry input coil disposed in series with the converter coil and the capacitor with respect to the power source , and a series snubber diode disposed between the capacitor and the series snubber circuitry input coil, the capacitor and the series snubber circuitry input coil forming a series resonant snubber, the series snubber circuitry including a series snubber output connectable to a series snubber circuitry load . a converter coil , a switch connected to the converter coil to control current flowing through the converter coil from the power source , the power conversion circuitry including a converter output connectable to a converter load ; and parallel snubber circuitry having resonant circuitry connected in parallel with the converter coil, the resonant circuitry including a parallel snubber circuitry coil and a capacitor connected in series, the parallel snubber circuitry including a parallel snubber output connectable to a parallel snubber circuitry load ; and characterized by : a series snubber circuitry associated with the converter coil including a flyback transformer in series with the converter coil with respect to the power source, a series snubber circuitry input coil disposed in series with the converter coil and the capacitor with respect to the power source , and a series snubber diode disposed between the capacitor and the series snubber circuitry input coil, the capacitor and the series snubber circuitry input coil forming a series resonant snubber, the series snubber circuitry including a series snubber output connectable to a series snubber circuitry load .
A transmission assembly for a powertrain of a vehicle , comprising, a control device and a transmission housing for housing a transmission , wherein the control device is mounted to the transmission housing, the control device comprising a transmission mounting surface facing the transmission housing, the transmission housing comprising a corresponding control device mounting surface facing the control device, characterized in that, one of the transmission mounting surface and the control device mounting surface comprises at least one groove , which groove comprises at least a first and a second step , as seen in a direction being perpendicular to the one of the transmission mounting surface and the control device mounting surface, wherein the second step is deeper than the first step, and the other one of the transmission mounting surface and the control device mounting surface comprises at least one outwardly extending guiding member , such as a pin, which is received in the groove, and wherein the outwardly extending guiding member and the groove are configured so that, when mounting the control device to the transmission housing , the outwardly extending guiding member can slide in the first step until it reaches the second step, whereafter the transmission mounting surface can be moved towards the control device mounting surface or whereafter the control device mounting surface can be moved towards the transmission mounting surface. a control device and a transmission housing for housing a transmission , wherein the control device is mounted to the transmission housing, the control device comprising a transmission mounting surface facing the transmission housing, the transmission housing comprising a corresponding control device mounting surface facing the control device, characterized in that, one of the transmission mounting surface and the control device mounting surface comprises at least one groove , which groove comprises at least a first and a second step , as seen in a direction being perpendicular to the one of the transmission mounting surface and the control device mounting surface, wherein the second step is deeper than the first step, and the other one of the transmission mounting surface and the control device mounting surface comprises at least one outwardly extending guiding member , such as a pin, which is received in the groove, and wherein the outwardly extending guiding member and the groove are configured so that, when mounting the control device to the transmission housing , the outwardly extending guiding member can slide in the first step until it reaches the second step, whereafter the transmission mounting surface can be moved towards the control device mounting surface or whereafter the control device mounting surface can be moved towards the transmission mounting surface.
A visualization method of the attitude of an aircraft (A), comprising the formation of a pitch scale (E) defining a lower border and an upper border, and including: - to visualize the nil pitch angle of the aircraft (A), a zero graduation on the lower border and the upper border; - to visualize the negative pitch angles of the aircraft (A), straight parallel graduations forming at least two groups converging toward one another with the approach of the zero graduation from the lower border; and - to visualize the positive pitch angles of the aircraft (A), curved graduations, the curvature of which increases moving away from the zero graduation toward the upper border. - to visualize the nil pitch angle of the aircraft (A), a zero graduation on the lower border and the upper border; - to visualize the negative pitch angles of the aircraft (A), straight parallel graduations forming at least two groups converging toward one another with the approach of the zero graduation from the lower border; and - to visualize the positive pitch angles of the aircraft (A), curved graduations, the curvature of which increases moving away from the zero graduation toward the upper border.
A soap bar composition comprising 45 to 85 weight% total amount of soap wherein the composition comprises; a) 1 to 40% of C8 to C12 fatty acid soap by weight of the composition; b) 1 to 12% of ricinoleate soap by weight of the composition; wherein the composition comprises less than 8% oleate soap by weight of the composition, wherein total amount of stearate and palmitate soap is from 40 to 72% by weight of the composition. a) 1 to 40% of C8 to C12 fatty acid soap by weight of the composition; b) 1 to 12% of ricinoleate soap by weight of the composition;
A rolling mill for tubular bodies comprising a first section for rolling on mandrel defined by a first plurality of rolling stands (15', 15, 15") arranged in sequence along a rolling axis , said rolling mill comprising a second section for extracting said mandrel and calibrating the diameter of said tubular bodies, said second section being downstream of said first section , said second section comprising a second plurality of rolling stands without mandrel, arranged in sequence along said rolling axis , wherein each stand of said second section comprises three rollers, characterized in that said tubular bodies exiting from said first section directly enter said second section , the rotation axes of which are arranged at 120° relative to one another and wherein, for each stand , said rotation axes are rotated by 180° relative to corresponding rotation axes of an adjacent stand, said position of said rotation axes being assessed with respect to a vertical reference direction, and wherein at least one stand of said second section comprises a motorized roller having a vertical rotation axis.
A three-dimensional printer , comprising: a machine platform ; a container , configured to contain a liquid forming material, wherein the container is movably assembled to the machine platform ; at least one stirring element , disposed in the container ; and a driving element , fixed on the machine platform and extending into the container , characterized in that the stirring element moves along with the container , wherein the driving element and the at least one stirring element are mutually located on moving paths of each other, and during a moving process of the container , the driving element and the at least one stirring element lean against each other to trigger an operation of the stirring element , so as to stir the liquid forming material in the container . a machine platform ; a container , configured to contain a liquid forming material, wherein the container is movably assembled to the machine platform ; at least one stirring element , disposed in the container ; and a driving element , fixed on the machine platform and extending into the container , characterized in that the stirring element moves along with the container , wherein the driving element and the at least one stirring element are mutually located on moving paths of each other, and during a moving process of the container , the driving element and the at least one stirring element lean against each other to trigger an operation of the stirring element , so as to stir the liquid forming material in the container .
A method for processing throttle control signal, the method being adapted to an electronic speed control which is provided with a throttle signal interface for receiving a throttle control signal, and a communication interface for transmitting communication data, and the method comprising: receiving, from a controller , the throttle control signal via the throttle signal interface ; and receiving, from the controller , an executable file or a debugging parameter via the communication interface ; and transmitting, to the controller , operation data via the communication interface ; and monitoring a signal transmission state of the throttle signal interface in real time; and determining that the throttle signal received at the throttle signal interface is abnormal; and receiving the throttle control signal via the communication interface if the signal transmission state of the throttle signal interface is an abnormal state. receiving, from a controller , the throttle control signal via the throttle signal interface ; and receiving, from the controller , an executable file or a debugging parameter via the communication interface ; and transmitting, to the controller , operation data via the communication interface ; and monitoring a signal transmission state of the throttle signal interface in real time; and determining that the throttle signal received at the throttle signal interface is abnormal; and receiving the throttle control signal via the communication interface if the signal transmission state of the throttle signal interface is an abnormal state.