mhurhangee/patent-ind-claim-en huggingface dataset:
A heart rhythm detection control method, applied to a terminal, wherein the method comprises: detecting (S201) motion data of the terminal in response to a heart rhythm detection instruction input by a user; and if the motion data is greater than a motion data threshold, displaying (S202) first prompt information in a user interface, wherein the first prompt information is used to prompt the user that heart rhythm detection is suspended, characterised in that , when it is detected that the motion data is greater than the motion data threshold, the method further comprises: recognizing ambient sound information of an environment in which the terminal is located; and if the ambient sound information comprises preset vehicle characteristic information, displaying vehicle prompt information in a user interface, wherein the vehicle prompt information is used to prompt the user that the terminal is currently in a running vehicle. detecting (S201) motion data of the terminal in response to a heart rhythm detection instruction input by a user; and if the motion data is greater than a motion data threshold, displaying (S202) first prompt information in a user interface, wherein the first prompt information is used to prompt the user that heart rhythm detection is suspended, characterised in that , when it is detected that the motion data is greater than the motion data threshold, the method further comprises: recognizing ambient sound information of an environment in which the terminal is located; and if the ambient sound information comprises preset vehicle characteristic information, displaying vehicle prompt information in a user interface, wherein the vehicle prompt information is used to prompt the user that the terminal is currently in a running vehicle. recognizing ambient sound information of an environment in which the terminal is located; and if the ambient sound information comprises preset vehicle characteristic information, displaying vehicle prompt information in a user interface, wherein the vehicle prompt information is used to prompt the user that the terminal is currently in a running vehicle.
Device for conditioning contact pieces for electrodes of a vacuum interrupter by generating an arc between the contact pieces arranged spaced apart along an axis , wherein the device has a coil arrangement with at least one coil or a permanent magnet arrangement with at least one permanent magnet for generating a variable transverse magnetic field , by means of which the arc is specifically movable during the conditioning, characterized in that the device also has a coil arrangement with at least one coil or a permanent magnet arrangement with at least one permanent magnet for generating a variable longitudinal magnetic field , by means of which the arc can be specifically made more diffuse during the conditioning.
A torque-limiting driver comprising: a body having a handle ; an upper cylindrical shank ; a lower cylindrical shank having a drive socket ; a ribbed nut ; a spring with an outer and an inner diameter between the upper cylindrical shank and the ribbed nut , wherein the spring is configured to apply a force across the upper cylindrical shank and the lower cylindrical shank ; a shaft having a workpiece-engaging tip and a drive connection engaged within the drive socket of the lower cylindrical shank, the shaft extending axially through the lower cylindrical shank , the upper cylindrical shank , and the spring and connected to the ribbed nut ; wherein the upper cylindrical shank and the lower cylindrical shank engage for relative rotation, and wherein the upper cylindrical shank and the lower cylindrical shank disengage when a predetermined torque limit is exceeded; and the shaft includes a threading that is threaded onto the ribbed nut , characterized in that the ribbed nut comprises a plurality of ribs running longitudinally within an open center . a body having a handle ; an upper cylindrical shank ; a lower cylindrical shank having a drive socket ; a ribbed nut ; a spring with an outer and an inner diameter between the upper cylindrical shank and the ribbed nut , wherein the spring is configured to apply a force across the upper cylindrical shank and the lower cylindrical shank ; a shaft having a workpiece-engaging tip and a drive connection engaged within the drive socket of the lower cylindrical shank, the shaft extending axially through the lower cylindrical shank , the upper cylindrical shank , and the spring and connected to the ribbed nut ; wherein the upper cylindrical shank and the lower cylindrical shank engage for relative rotation, and wherein the upper cylindrical shank and the lower cylindrical shank disengage when a predetermined torque limit is exceeded; and the shaft includes a threading that is threaded onto the ribbed nut , characterized in that the ribbed nut comprises a plurality of ribs running longitudinally within an open center .
A cooling device comprising an ice making device wherein the ice making device has a first ice tray having a plurality of open-top cells filled with water; a second ice tray that is positioned next to the first ice tray parallel on the same plane and that has a plurality of open-top cells filled with water, wherein the ice making device has a driving mechanism • that can be moved in two different movements, • that moves only the first ice tray with a first movement (I) and • that returns the first ice tray to its initial position and moves the second ice tray with a second movement (II), characterized in that the driving mechanism comprises a rear cover and a front cover ; a motor that is arranged between the rear cover and the front cover and that is attached to the first ice tray ; a first gear that is attached onto the motor so as to be coaxial with the motor ; a locking mechanism that is attached onto the motor so as to be coaxial with the first gear and to allow the first gear to rotate in one direction and prevent the same from rotating in the other direction; a third gear that is adjacent to the first gear and that contacts the first gear so as to receive the movement of the first gear , and a second gear that is fixed to the second ice tray and that contacts the third gear so as to receive the movement of the third gear . • that can be moved in two different movements, • that moves only the first ice tray with a first movement (I) and • that returns the first ice tray to its initial position and moves the second ice tray with a second movement (II), the driving mechanism comprises a rear cover and a front cover ; a motor that is arranged between the rear cover and the front cover and that is attached to the first ice tray ; a first gear that is attached onto the motor so as to be coaxial with the motor ; a locking mechanism that is attached onto the motor so as to be coaxial with the first gear and to allow the first gear to rotate in one direction and prevent the same from rotating in the other direction; a third gear that is adjacent to the first gear and that contacts the first gear so as to receive the movement of the first gear , and a second gear that is fixed to the second ice tray and that contacts the third gear so as to receive the movement of the third gear .
An apparatus for detecting a formation of ice in a household appliance, characterized by comprising: a container configured to accommodate a fluid , the container including an entry port and an opening ; a gas supply device connected to the entry port of the container to supply a gas to the fluid in the container ; a measurement device covering at least a part of the opening of the container , wherein the measurement device includes a strain gauge; and a determination device configured to determine the formation of ice in the fluid based on measurement signals provided by the strain gauge. a container configured to accommodate a fluid , the container including an entry port and an opening ; a gas supply device connected to the entry port of the container to supply a gas to the fluid in the container ; a measurement device covering at least a part of the opening of the container , wherein the measurement device includes a strain gauge; and a determination device configured to determine the formation of ice in the fluid based on measurement signals provided by the strain gauge.
A component mounting method for using a component mounting tool which includes a plurality of claw sections that pinch and pick up a component (P1,P2,P12-15) at a component supply position, and release the component (P1,P2,P12-15) on a board (K) to mount the component (P1,P2,P12-15) onto a predetermined position of the board (K), and which is mounted to be capable of moving between the component supply position and the board (K), wherein standard pinching locations (R1-R4) at which the component (P1,P2,P12-15) is ordinarily pinched by the plurality of claw sections are defined, characterized in that the method comprises: determining pinching locations of the component (P1,P2,P12-15) to be pinched by the plurality of claw sections such that positions and a release operation of the plurality of claw sections do not interfere with mounted components which are already mounted on the board (K) when the plurality of claw sections release the component (P1,P2,P12-15), and in a case in which at least one of positions and a release operation of the plurality of claw sections interferes with the mounted components if the plurality of claw sections pinch the standard pinching locations (R1-R4) of the component (P1,P2,P12-15), pinching locations of the component (P1,P2,P12-15) are changed from the standard pinching locations (R1-R4) to avoid interference. determining pinching locations of the component (P1,P2,P12-15) to be pinched by the plurality of claw sections such that positions and a release operation of the plurality of claw sections do not interfere with mounted components which are already mounted on the board (K) when the plurality of claw sections release the component (P1,P2,P12-15), and in a case in which at least one of positions and a release operation of the plurality of claw sections interferes with the mounted components if the plurality of claw sections pinch the standard pinching locations (R1-R4) of the component (P1,P2,P12-15), pinching locations of the component (P1,P2,P12-15) are changed from the standard pinching locations (R1-R4) to avoid interference.
Moving mechanism for a decorative element of a timepiece, said moving mechanism including a circular drive element arranged to be rotatable about a central axis, said decorative element being mounted on the drive element by means of an arbor integral with said decorative element and parallel to the central axis, and first means for driving said decorative element in a rotational motion about its own arbor and in a translational motion along its own arbor , said first drive means for the decorative element being mounted on the circular drive element and arranged to cooperate with fixed actuation means arranged in the periphery of the circular drive element such that said decorative element rotates about its arbor and moves along its arbor while rotating about the central axis, in which the first means for driving the decorative element in said translational motion along its own arbor include a gear train comprising at least a first wheel set arranged to cooperate with first fixed actuation means arranged in the periphery of the drive element , and a last wheel set , said last wheel set and the arbor of the decorative element being arranged to form a screw/nut system, the arbor of the decorative element being further arranged to have limited rotation about itself at least when the first wheel set cooperates with the first fixed actuation means, such that rotation of the gear train causes translation of the arbor of the decorative element .
A device for holding in position a product to be processed, comprising: - a base having a magnetic or ferromagnetic or electromagnetic element adapted to interact by means of magnetic interaction with a work surface of an apparatus for tumbling or polishing; said base comprising a first portion and a second portion movable along an operating direction (T) mutually towards or away from a first and a second operating position; - a retaining support connected to said base and configured to hold in a stable position a product to be processed; said retaining support having a first retaining element connected to said first portion and a second retaining element connected to said second portion ; - an actuation member configured to move said first portion and said second portion with the related retaining elements between said first operating position, wherein said retaining support is configured to impart a force onto the product to be processed so as to hold it in a stable and integral position with the device itself, and said second operating position, wherein said first and second retaining element are distanced from the product to be processed so as to allow the removal from or installation thereof in said device , wherein said actuation member comprises an elastic element normally configured to move said first portion and said second portion of said base into the first operating position. - a base having a magnetic or ferromagnetic or electromagnetic element adapted to interact by means of magnetic interaction with a work surface of an apparatus for tumbling or polishing; said base comprising a first portion and a second portion movable along an operating direction (T) mutually towards or away from a first and a second operating position; - a retaining support connected to said base and configured to hold in a stable position a product to be processed; said retaining support having a first retaining element connected to said first portion and a second retaining element connected to said second portion ; - an actuation member configured to move said first portion and said second portion with the related retaining elements between said first operating position, wherein said retaining support is configured to impart a force onto the product to be processed so as to hold it in a stable and integral position with the device itself, and said second operating position, wherein said first and second retaining element are distanced from the product to be processed so as to allow the removal from or installation thereof in said device ,
Method for electrically driving a switchable optical element comprising at least one switching layer , wherein the switchable optical element is a window element, wherein the switching layer comprises a liquid-crystalline medium having at least three states, the state of the liquid-crystalline medium being controlled by an applied electric field, wherein the switching layer adopts a clear state when the driving voltage given as root mean square, RMS, voltage exceeds a first level, wherein when the voltage is lowered, the clear state is held until the driving voltage given as RMS voltage falls below a second level, wherein the switching layer adopts a scattering state when the driving voltage given as RMS voltage is further reduced and falls below a third level, and wherein the switching layer adopts a third state when the driving voltage given as RMS voltage is further reduced and falls below a fourth level, the method being characterized by b) switching from the clear state to the scattering state by lowering the driving voltage given as RMS voltage from a clear voltage V c2 which is lower than the first level and higher than the second level to a low voltage V L for a period of time t 2 and then raising the driving voltage given as RMS voltage to a privacy voltage V p , the privacy voltage V p being lower than or equal to the third level and higher than the fourth level and the low voltage V L being lower than the privacy voltage V p , and c) holding the scattering state by alternating the driving voltage given as RMS voltage between the privacy voltage V p and the low voltage V L until the state is switched again, wherein the privacy voltage V p is maintained for a period of time t 4 and the low voltage V L is maintained for a period of time t 5 . b) switching from the clear state to the scattering state by lowering the driving voltage given as RMS voltage from a clear voltage V c2 which is lower than the first level and higher than the second level to a low voltage V L for a period of time t 2 and then raising the driving voltage given as RMS voltage to a privacy voltage V p , the privacy voltage V p being lower than or equal to the third level and higher than the fourth level and the low voltage V L being lower than the privacy voltage V p , and c) holding the scattering state by alternating the driving voltage given as RMS voltage between the privacy voltage V p and the low voltage V L until the state is switched again, wherein the privacy voltage V p is maintained for a period of time t 4 and the low voltage V L is maintained for a period of time t 5 .
A method for detection of smoke in an environment, comprising the steps of: capturing video data , comprising a plurality of image frames ; performing a step of motion detection and/or a step of brightness change computation on said plurality of image frames ; computing a value of at least one metric per image frame, wherein said metric is representative for contrast at a portion of each image frame, wherein said contrast is a local contrast determined at a plurality of positions in each image frame using nearby pixels, wherein for said computing of said metric value a region having detected motion and/or brightness change is not taken into account; and determining smoke in said environment by monitoring a change in said value of said metric across said plurality of image frames . capturing video data , comprising a plurality of image frames ; performing a step of motion detection and/or a step of brightness change computation on said plurality of image frames ; computing a value of at least one metric per image frame, wherein said metric is representative for contrast at a portion of each image frame, wherein said contrast is a local contrast determined at a plurality of positions in each image frame using nearby pixels, wherein for said computing of said metric value a region having detected motion and/or brightness change is not taken into account; and determining smoke in said environment by monitoring a change in said value of said metric across said plurality of image frames .
An electro-thermal based device, realized as a photoacoustic gas sensor and comprising - a heater , - a readout circuit , - a digital controller having a first input coupled to a first output of the readout circuit , and - a digital sigma-delta modulator having a first input coupled to an output of the digital controller and an output coupled to the heater , wherein the electro-thermal based device comprises a temperature sensor that is connected to the readout circuit or the heater is electrically coupled to the readout circuit , wherein the electro-thermal based device comprises a sensor element and a chamber , wherein the sensor element is a microphone or pressure sensor, wherein the heater is implemented as an IR radiation emitter, wherein the chamber encloses a gas sample, the heater and the sensor element, wherein the readout circuit is configured to generate a readout signal (SR) implemented as digital signal at the first output of the readout circuit , and wherein the digital controller comprises a second input for receiving a target signal (ST) and is configured to generate a control signal (SC) as a function of the readout signal (SR) and of the target signal (ST) and to provide the control signal (SC) implemented as digital signal to the first input of the digital sigma-delta modulator . - a heater , - a readout circuit , - a digital controller having a first input coupled to a first output of the readout circuit , and - a digital sigma-delta modulator having a first input coupled to an output of the digital controller and an output coupled to the heater , wherein the electro-thermal based device comprises a temperature sensor that is connected to the readout circuit or the heater is electrically coupled to the readout circuit , wherein the electro-thermal based device comprises a sensor element and a chamber , wherein the sensor element is a microphone or pressure sensor, wherein the heater is implemented as an IR radiation emitter, wherein the chamber encloses a gas sample, the heater and the sensor element, wherein the readout circuit is configured to generate a readout signal (SR) implemented as digital signal at the first output of the readout circuit , and wherein the digital controller comprises a second input for receiving a target signal (ST) and is configured to generate a control signal (SC) as a function of the readout signal (SR) and of the target signal (ST) and to provide the control signal (SC) implemented as digital signal to the first input of the digital sigma-delta modulator .
A computer-implemented method for automatically composing data center resources in a data center, wherein the computer-implemented method comprises: causing a management software of the data center to collect connection status between a plurality of nodes (104-A, 104-B) and a plurality of switches in the data center, and among the plurality of switches ; receiving the connection status from the management software ; generating a network topology of the data center based upon the connection status; wherein the method is characterized by further comprising: patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes. causing a management software of the data center to collect connection status between a plurality of nodes (104-A, 104-B) and a plurality of switches in the data center, and among the plurality of switches ; receiving the connection status from the management software ; generating a network topology of the data center based upon the connection status; wherein the method is characterized by further comprising: patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes. patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes.