mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigeration appliance with an inner container, with an air duct element , which is arranged on an inner wall of the inner container and has an air duct for supplying cold air into the inner container, and with a cover element for covering the air duct element , wherein a seal is arranged on the air duct element , and wherein the cover element is connected to the inner wall by means of a latching connection and the air duct element presses against the inner wall , wherein the inner wall has a first guide element , and the air duct element has a second guide element , wherein the first guide element rests against the second guide element , in order to position the air duct element in a first direction, and the first guide element further rests against a side of the air duct element , in order to position the air duct element in a second direction, wherein the first direction and the second direction are different, characterised in that the inner wall has a latch cam , and that the cover element has a latching element , wherein the latching element engages behind the latch cam in a latching connection, the inner wall further has a securing cam , wherein the securing cam is arranged at a distance from the latch cam , and that a securing element is arranged on the latching element , wherein the securing element engages into a recess formed between the securing cam and the latch cam , in order to fix the latching element on the latch cam , the securing cam is arranged offset from the latch cam , the recess formed between the securing cam and the latch cam has an insertion opening , wherein a size of the insertion opening is smaller than a size of the securing element , and that the cover element is resiliently deformable, at least in sections, in order to enable an insertion of the securing element into the recess formed between the securing cam and the latch cam .
Self-aligning tool guide , comprising: a holder for fixing a portable power tool , a lifting mechanism on which the holder is mounted, and wherein the lifting mechanism has a propulsion system for raising the holder parallel to a lifting axis , a self-balancing chassis which has two wheels on a wheel axis , a drive which is coupled to the wheels , and a steering system , wherein the tool guide is equipped with a tool, characterized in that the tool guide is provided with a centre of gravity sensor for detecting a lateral deflection (x) of the centre of gravity (G) of the lifting mechanism in relation to the wheel axis , wherein the steering system is designed to actuate the drive to output a torque which counteracts the deflection (x), an inclination sensor for detecting an inclination of the lifting mechanism in relation to the force of gravity in a frontal plane which is parallel to the wheel axis and parallel to the lifting axis , a pivot joint by means of which the lifting mechanism is mounted on the chassis , wherein a pivot axis of the pivot joint is inclined in relation to the frontal plane or is perpendicular to the frontal plane, a pivot drive which is coupled to the pivot joint for adjusting an inclination of the lifting axis in relation to the wheel axis in the frontal plane, and an inclination controller which is designed to actuate the pivot drive in such a way that the inclination is minimized, and wherein the tool guide is designed to check, before start-up, whether the tool is still in engagement with a ceiling . a holder for fixing a portable power tool , a lifting mechanism on which the holder is mounted, and wherein the lifting mechanism has a propulsion system for raising the holder parallel to a lifting axis , a self-balancing chassis which has two wheels on a wheel axis , a drive which is coupled to the wheels , and a steering system , wherein the tool guide is equipped with a tool, characterized in that the tool guide is provided with a centre of gravity sensor for detecting a lateral deflection (x) of the centre of gravity (G) of the lifting mechanism in relation to the wheel axis , wherein the steering system is designed to actuate the drive to output a torque which counteracts the deflection (x), an inclination sensor for detecting an inclination of the lifting mechanism in relation to the force of gravity in a frontal plane which is parallel to the wheel axis and parallel to the lifting axis , a pivot joint by means of which the lifting mechanism is mounted on the chassis , wherein a pivot axis of the pivot joint is inclined in relation to the frontal plane or is perpendicular to the frontal plane, a pivot drive which is coupled to the pivot joint for adjusting an inclination of the lifting axis in relation to the wheel axis in the frontal plane, and an inclination controller which is designed to actuate the pivot drive in such a way that the inclination is minimized, and wherein the tool guide is designed to check, before start-up, whether the tool is still in engagement with a ceiling .
A light emitting diode package for vehicles comprising: a substrate ; eight light emitting diode devices (301-308) disposed on the substrate , each of the light emitting diode devices (301 to 308) comprising a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer, each of the light emitting diode devices (301 to 308) being divided into a first light emitting diode cell (301a to 308a) and a second light emitting diode cell (301b to 308b); a first electrode and a second electrode connected to each of the light emitting cells (301a to 308a, 301b to 308b); and fluorescent substances disposed respectively on the light emitting diode cells (301a to 308a, 301b to 308b) such that the first light emitting diode cells (301a to 308a) emit red light (R) and the second light emitting diode cells (301b to 308b) emit yellow light (Y), wherein the first light emitting diode cells (301a to 308a) and the second light emitting diode cells (301b to 308b) are driven independently of each other, the first light emitting diode cells (301a to 308a) being connected to one line (a) and the second light emitting diode cells (301b to 308b) being connected to another line (b), and wherein in each of the light emitting diode devices (301 to 308), the first light emitting diode cell (301a to 308a) is spaced apart from the second light emitting diode cell (301b to 308b) by a distance (d 1 ) of 10 μ m to 50 μ m. a substrate ; eight light emitting diode devices (301-308) disposed on the substrate , each of the light emitting diode devices (301 to 308) comprising a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer, each of the light emitting diode devices (301 to 308) being divided into a first light emitting diode cell (301a to 308a) and a second light emitting diode cell (301b to 308b); a first electrode and a second electrode connected to each of the light emitting cells (301a to 308a, 301b to 308b); and fluorescent substances disposed respectively on the light emitting diode cells (301a to 308a, 301b to 308b) such that the first light emitting diode cells (301a to 308a) emit red light (R) and the second light emitting diode cells (301b to 308b) emit yellow light (Y), wherein the first light emitting diode cells (301a to 308a) and the second light emitting diode cells (301b to 308b) are driven independently of each other, the first light emitting diode cells (301a to 308a) being connected to one line (a) and the second light emitting diode cells (301b to 308b) being connected to another line (b), and wherein in each of the light emitting diode devices (301 to 308), the first light emitting diode cell (301a to 308a) is spaced apart from the second light emitting diode cell (301b to 308b) by a distance (d 1 ) of 10 μ m to 50 μ m.
A computer-implemented method, comprising: instantiating a plurality of model objects on a plurality of model servers , wherein each of the plurality of model objects includes a model of a plant or process being controlled, and wherein at least one of the models contains proprietary information; requesting information from the plurality of model objects via a communication network; receiving the information from the plurality of model objects via the communication network, wherein the information received from the plurality of model objects does not include proprietary information; generating an approximation of at least one of the plurality of the models of the plant or process being controlled based on the received information, wherein the approximation is relevant to generating control commands; generating control commands based at least in part on the approximation and the information received from the plurality of model objects; transmitting the control commands to at least one of the plurality of model objects via the communication network; and controlling an industrial automation component in the plant or process based on the control commands. instantiating a plurality of model objects on a plurality of model servers , wherein each of the plurality of model objects includes a model of a plant or process being controlled, and wherein at least one of the models contains proprietary information; requesting information from the plurality of model objects via a communication network; receiving the information from the plurality of model objects via the communication network, wherein the information received from the plurality of model objects does not include proprietary information; generating an approximation of at least one of the plurality of the models of the plant or process being controlled based on the received information, wherein the approximation is relevant to generating control commands; generating control commands based at least in part on the approximation and the information received from the plurality of model objects; transmitting the control commands to at least one of the plurality of model objects via the communication network; and controlling an industrial automation component in the plant or process based on the control commands.
Use of an aqueous composition comprising at least one organic peroxide to dissolve amorphous dithiazine.
Bioelectrical impedance analysis, BIA, system comprising a portable electronic host device (H) and an accessory device (A) connectable to the host device (H) via a data cable (C), the BIA system further comprising - a first and a second electrode (E1, E2) arranged on an outside of the accessory device (A) for contacting a first and a second contact area of a body of a user (U), respectively; - a third and a fourth electrode (E3, E4) arranged on an outside of the host device for contacting a third and a fourth contact area of the body, respectively; - a BIA circuitry comprised by the host device (H), the BIA circuitry being connectable to the first and the second electrode (E1, E2) via a first and a second line (L1, L2), respectively, of the data cable (C), connected to the third and the fourth electrode (E3, E4) and configured to - drive an alternating current through the body via the first and the third electrode (E1, E3); - sense a voltage indicative of a body impedance of the body via the second and the fourth electrode (E2, E4); and - determine the body impedance depending on the sensed voltage; wherein - the accessory device (A) comprises an earphone device; - the host device (H) comprises a smartphone, a tablet computer, a notebook computer or a portable media player; and - the first and the second electrode (E1, E2) are arranged on respective positions of the earphone device to contact the first and the second contact area when the user (U) wears the earphone device. - a first and a second electrode (E1, E2) arranged on an outside of the accessory device (A) for contacting a first and a second contact area of a body of a user (U), respectively; - a third and a fourth electrode (E3, E4) arranged on an outside of the host device for contacting a third and a fourth contact area of the body, respectively; - a BIA circuitry comprised by the host device (H), the BIA circuitry being connectable to the first and the second electrode (E1, E2) via a first and a second line (L1, L2), respectively, of the data cable (C), connected to the third and the fourth electrode (E3, E4) and configured to - drive an alternating current through the body via the first and the third electrode (E1, E3); - sense a voltage indicative of a body impedance of the body via the second and the fourth electrode (E2, E4); and - determine the body impedance depending on the sensed voltage; wherein - drive an alternating current through the body via the first and the third electrode (E1, E3); - sense a voltage indicative of a body impedance of the body via the second and the fourth electrode (E2, E4); and - determine the body impedance depending on the sensed voltage; wherein - the accessory device (A) comprises an earphone device; - the host device (H) comprises a smartphone, a tablet computer, a notebook computer or a portable media player; and - the first and the second electrode (E1, E2) are arranged on respective positions of the earphone device to contact the first and the second contact area when the user (U) wears the earphone device.
A measuring apparatus comprising: an imaging optical system configured to form an image of an object to be measured; and an imaging section including a transmissive member which is arranged in the vicinity of an image plane (P2) of the imaging optical system to be inclined with respect to an optical axis of the imaging optical system; wherein the imaging optical system includes a first optical member which is non-coaxial with respect to the optical axis, and which has a surface that is rotationally symmetric about a first symmetry axis, wherein the transmissive member is arranged along the image plane (P2), and is a plate-shaped member via which a light flux condensed by the imaging optical system is transmitted, wherein the first symmetry axis is inclined, with respect to the optical axis, in a plane that is perpendicular to an intersection line between a plane (P3) including an object plane (P1) and a plane (P4) including the image plane (P2), and the first optical member is inclined in an opposite direction to a direction in which the transmissive member is inclined with respect to the optical axis. an imaging optical system configured to form an image of an object to be measured; and an imaging section including a transmissive member which is arranged in the vicinity of an image plane (P2) of the imaging optical system to be inclined with respect to an optical axis of the imaging optical system; wherein the imaging optical system includes a first optical member which is non-coaxial with respect to the optical axis, and which has a surface that is rotationally symmetric about a first symmetry axis, wherein the transmissive member is arranged along the image plane (P2), and is a plate-shaped member via which a light flux condensed by the imaging optical system is transmitted, wherein the first symmetry axis is inclined, with respect to the optical axis, in a plane that is perpendicular to an intersection line between a plane (P3) including an object plane (P1) and a plane (P4) including the image plane (P2), and the first optical member is inclined in an opposite direction to a direction in which the transmissive member is inclined with respect to the optical axis.
A method of controlling a power generation system following a transient grid event, the method comprising: sensing a rate of change of electrical frequency at terminals of a generator ; determining, using a processor , a rate of change of shaft line acceleration; identifying the transient grid event based on the rate of change of shaft line acceleration; and triggering an action to recover from the transient grid event when the rate of change of electrical frequency exceeds a first specified value and the rate of change of shaft line acceleration exceeds a second specified value for a specified duration, wherein the determining the rate of change of shaft line acceleration is based on processing power at the generator and a frequency signal ., and wherein the processing includes processing each of the power at the generator and the frequency signal to obtain processed values and further filtering a sum of the processed values. sensing a rate of change of electrical frequency at terminals of a generator ; determining, using a processor , a rate of change of shaft line acceleration; identifying the transient grid event based on the rate of change of shaft line acceleration; and triggering an action to recover from the transient grid event when the rate of change of electrical frequency exceeds a first specified value and the rate of change of shaft line acceleration exceeds a second specified value for a specified duration, wherein the determining the rate of change of shaft line acceleration is based on processing power at the generator and a frequency signal ., and wherein the processing includes processing each of the power at the generator and the frequency signal to obtain processed values and further filtering a sum of the processed values.
A magnetic component for an electronic device, comprising a metal alloy in an ordered body-centered cubic phase, the metal alloy consisting of 32-38 weight percent (wt%) cobalt, optionally one or more of oxygen, phosphorus and sulphur, and a balance of iron, the magnetic component having a porosity between 2% and 10% and an average pore size of 2 microns to 5 microns.
An electro-spindle including a body in which a motor is mounted, said motor including a stator surrounding a rotor rotatably connected with a hollow shaft , said hollow shaft being intended to rotatably drive a tool or a tool holder , the electro-spindle further including a rotary system for controlling a displacement of an element incorporated to said tool or tool holder , said rotary control system including an additional motor as well as a drive shaft passing inside said hollow shaft of said electro-spindle , said drive shaft being connected on the one hand to said additional motor and on the other hand to said tool or tool holder to allow control of the displacement of said incorporated element by generating a relative angular rotation between the drive shaft and the hollow shaft , characterized in that , said additional motor is mounted on a bell which is assembled on a rear end of said body of said electro-spindle , the displacement of the incorporated element being axial, the transformation of the rotational movement of the shaft is performed inside the tool via a device .
An active road noise control system comprising: a sensor arrangement configured to generate a primary sense signal representative of at least one of accelerations, motions and vibrations that occur at a first position on a vehicle body, the sense signal having a magnitude; an active road noise control module configured to provide a noise reducing signal by processing the primary sense signal according to an adaptive mode of operation or a non-adaptive mode of operation at a time; at least one loudspeaker configured to generate noise reducing sound at a second position within the vehicle body from the noise reducing signal, the at least one loudspeaker being disposed at a third position within the vehicle body; and an overload detection module configured to evaluate the primary sense signal and to control the active road noise control module so that the active road noise control module operates in the adaptive mode of operation when the magnitude of the primary sense signal undercuts a first threshold and operates in the non-adaptive mode of operation when the magnitude of the primary sense signal exceeds a second threshold, the first threshold being smaller than the second threshold; wherein the overload detection module is further configured to exhibit a hysteresis behavior between the first threshold and the second threshold. a sensor arrangement configured to generate a primary sense signal representative of at least one of accelerations, motions and vibrations that occur at a first position on a vehicle body, the sense signal having a magnitude; an active road noise control module configured to provide a noise reducing signal by processing the primary sense signal according to an adaptive mode of operation or a non-adaptive mode of operation at a time; at least one loudspeaker configured to generate noise reducing sound at a second position within the vehicle body from the noise reducing signal, the at least one loudspeaker being disposed at a third position within the vehicle body; and an overload detection module configured to evaluate the primary sense signal and to control the active road noise control module so that the active road noise control module operates in the adaptive mode of operation when the magnitude of the primary sense signal undercuts a first threshold and operates in the non-adaptive mode of operation when the magnitude of the primary sense signal exceeds a second threshold, the first threshold being smaller than the second threshold; wherein the overload detection module is further configured to exhibit a hysteresis behavior between the first threshold and the second threshold.
Method for data communication between at least two participants (PL, PV1-PV3) of a wireless communication system, comprising the steps, observing the surroundings of the transmitting participant , determining the position and motion of the participants , estimating the transmission conditions for a later point in time , characterized in that the data ready for data communication stored in a transmit buffer of a participant (PL, PV1-PV3) is classified in different categories, said categories determining susceptibility of said data to transmission errors, and further comprising the steps of selecting the category of data for data transmission from the transmit buffer at a given point in time for which the transmission conditions have been estimated based on said estimated transmission conditions such that the data to be transmitted is in a category fitting to the estimated transmission conditions and transmitting the selected data, and selecting the category of data which fits best to the estimated transmission conditions for the case that no data is found in a category that is susceptible enough against the amount of transmission errors under the estimated transmission conditions and checking if the transmission conditions could be improved by link adaptation at the transmitting participant and transmitting the selected data according to said link adaptation.