mhurhangee/ep-ind-claims huggingface dataset:
A method for switching a working mode of a headphone, comprising the operations of: receiving, via a sound channel of the headphone, a signal sent by a smart terminal; processing the received signal; and if a command indicative of switching the working mode of the headphone is obtained from processing the received signal, controlling, according to the command, a switch module of a microphone channel to switch the working mode such that the headphone is switchable between a call mode for transmitting call data via a data modulation and sending module and an application data transmission mode for transmitting human biological characteristic data of a user via the data modulation and sending module, wherein the microphone channel is a channel formed via an electrical connection or a radio connection between a microphone of the headphone and the smart terminal, wherein the operation of processing the received signal comprises demodulating and parsing target data of the signal sent by the smart terminal and further comprises the operations of: demodulating the target data, and performing validity identification check for the demodulated target data; and if the demodulated target data passes the validity identification check, parsing the demodulated target data. receiving, via a sound channel of the headphone, a signal sent by a smart terminal; processing the received signal; and if a command indicative of switching the working mode of the headphone is obtained from processing the received signal, controlling, according to the command, a switch module of a microphone channel to switch the working mode such that the headphone is switchable between a call mode for transmitting call data via a data modulation and sending module and an application data transmission mode for transmitting human biological characteristic data of a user via the data modulation and sending module, wherein the microphone channel is a channel formed via an electrical connection or a radio connection between a microphone of the headphone and the smart terminal, demodulating the target data, and performing validity identification check for the demodulated target data; and if the demodulated target data passes the validity identification check, parsing the demodulated target data.
A method for processing point cloud data, the method comprising: acquiring a first frame and a second frame respectively from the point cloud data; extracting a first candidate object in the first frame and a second candidate object corresponding to the first candidate object in the second frame, respectively; determining a first location of the first candidate object and a second location of the second candidate object in a coordinate system of the point cloud data, respectively; and identifying any one of the first candidate object and the second candidate object as a moving object, in response to an offset between the first location and the second location; wherein the extracting the first candidate object and the second candidate object comprises: clustering points in the first frame and the second frame to form a first set of candidate objects and a second set of candidate objects respectively in the coordinate system; and selecting the first candidate object from the first set of candidate objects, and selecting the second candidate object corresponding to the first candidate object from the second set of candidate objects; wherein the forming the first set of candidate objects and the second set of candidate objects comprises: detecting a ground object in the first frame and the second frame, respectively; and forming the first set of candidate objects and the second set of candidate objects respectively using the one or more objects which are connected to the ground object in the first frame and the second frame. acquiring a first frame and a second frame respectively from the point cloud data; extracting a first candidate object in the first frame and a second candidate object corresponding to the first candidate object in the second frame, respectively; determining a first location of the first candidate object and a second location of the second candidate object in a coordinate system of the point cloud data, respectively; and identifying any one of the first candidate object and the second candidate object as a moving object, in response to an offset between the first location and the second location; clustering points in the first frame and the second frame to form a first set of candidate objects and a second set of candidate objects respectively in the coordinate system; and selecting the first candidate object from the first set of candidate objects, and selecting the second candidate object corresponding to the first candidate object from the second set of candidate objects; detecting a ground object in the first frame and the second frame, respectively; and forming the first set of candidate objects and the second set of candidate objects respectively using the one or more objects which are connected to the ground object in the first frame and the second frame.
A medical system, comprising: a sensor having a coordinate system and arranged to be substantially fixed relative to a patient's body and to provide signals indicative of a detected vector indicative of a posture state of a patient, wherein the posture state includes at least one of a posture and an activity a storage device arranged to store posture state definitions, one or more of which are associated with defined vectors; characterized in that for any substantially fixed orientation of the sensor relative to the patient's body, the detected vector and each defined vector is expressed in terms of the coordinate system of the sensor regardless of the orientation of the sensor with respect to the coordinate system of the body; and a processor configured to derive a respective similarity between the detected vector and each of one or more of the defined vectors to determine to which defined vector the detected vector is closest, wherein each similarity is a value that indicates how similar the detected vector is to a respective one of the defined vectors, and deriving each similarity requires neither derivation of angles nor use of a coordinate system of the patient, and to classify the posture state of the patient based on the derived similarities; and a response module configured to generate a response based on the posture state classification. a sensor having a coordinate system and arranged to be substantially fixed relative to a patient's body and to provide signals indicative of a detected vector indicative of a posture state of a patient, wherein the posture state includes at least one of a posture and an activity a storage device arranged to store posture state definitions, one or more of which are associated with defined vectors; characterized in that for any substantially fixed orientation of the sensor relative to the patient's body, the detected vector and each defined vector is expressed in terms of the coordinate system of the sensor regardless of the orientation of the sensor with respect to the coordinate system of the body; and a processor configured to derive a respective similarity between the detected vector and each of one or more of the defined vectors to determine to which defined vector the detected vector is closest, wherein each similarity is a value that indicates how similar the detected vector is to a respective one of the defined vectors, and deriving each similarity requires neither derivation of angles nor use of a coordinate system of the patient, and to classify the posture state of the patient based on the derived similarities; and a response module configured to generate a response based on the posture state classification.
An apparatus for slicing food products comprising a product feed for the single-track or multitrack feeding of products to be sliced to a cutting plane, wherein the product feed comprises at least one product holder which comprises at least one carrier and a head which can be releasably fastened to the carrier by means of an interface, wherein the interface has holding means (32, 34; 132, 134; 232, 234) which are configured and set up to pre-fix the head to the carrier so that the head is held at the carrier, and wherein the interface has bracing means to brace the head with the carrier, characterized in that a drive interface is provided that is configured to automatically couple during a fastening of the head to the carrier. wherein the interface has holding means (32, 34; 132, 134; 232, 234) which are configured and set up to pre-fix the head to the carrier so that the head is held at the carrier, and wherein the interface has bracing means to brace the head with the carrier, characterized in that a drive interface is provided that is configured to automatically couple during a fastening of the head to the carrier.
A method to reduce inrush current of electronic circuits having a Miller compensation capacitor (Cmiller) connected to an output, the method comprising the steps of: providing an electronic circuit having an input stage (MP1, MP2, MN1, MN2) and a pre-charge circuit and the Miller compensation capacitor (Cmiller) connected to capacitive load (Cout); pre-charging a terminal of the Miller capacitor, which is connected to the input stage of the electronic circuit, to bias conditions close to normal biasing conditions at the very beginning of a start-up phase of the circuit; clamping (MN4, MN5) a terminal of the Miller capacitor to a voltage close to normal biasing conditions, while the electronic circuit is starting up; and disabling the pre-charging and clamping after a defined timespan being long enough to ensure that the biasing of an input stage of the electronic circuit is close to the final biasing conditions. providing an electronic circuit having an input stage (MP1, MP2, MN1, MN2) and a pre-charge circuit and the Miller compensation capacitor (Cmiller) connected to capacitive load (Cout); pre-charging a terminal of the Miller capacitor, which is connected to the input stage of the electronic circuit, to bias conditions close to normal biasing conditions at the very beginning of a start-up phase of the circuit; clamping (MN4, MN5) a terminal of the Miller capacitor to a voltage close to normal biasing conditions, while the electronic circuit is starting up; and disabling the pre-charging and clamping after a defined timespan being long enough to ensure that the biasing of an input stage of the electronic circuit is close to the final biasing conditions.
A horological mechanism comprising a barrel drum mounted pivotally free around a barrel shaft, a barrel spring being housed inside the barrel drum, this barrel spring comprising a first external coil by which it is attached to the barrel drum, and a last internal coil by which the barrel spring is attached to the barrel shaft, the winding of the barrel spring being done by a winding rod which meshes with the barrel drum via a winding geartrain, a barrel ratchet being fixedly mounted on the barrel shaft, the horological mechanism also comprising a finishing geartrain which includes a first finishing wheel with which the barrel ratchet meshes, and which transmits a driving force from the barrel drum to an escapement mobile the purpose of which is to maintain the oscillations of a regulating member which, by its oscillations, regulates the rate of the horological mechanism, the horological mechanism being characterised in that it comprises an hour wheel frictionally mounted on the barrel shaft and to which an hour hand is attached for displaying the single time, this hour wheel being frictionally coupled with the barrel shaft, the entire kinematic chain extending from the barrel ratchet to the escapement mobile being calculated so that the barrel ratchet, and therefore the hour wheel, rotate at the rate of one complete revolution in 12 or 24 hours.
A device for coating an exterior of an elongate object, comprising: a housing structure including an elongate coating chamber having first and second opposite ends (32, 34), said elongate coating chamber including a port communicating with said first end for receiving the elongate object and an outlet at said second end, an air supply passage, a coating material supply passage, and a mixing passage communicating with said air supply passage and said coating material supply passage, said mixing passage further communicating with said elongate coating chamber; and a ring shaped structure communicating between said air supply passage and said mixing passage, said ring shaped structure configured to cause the pressurized air to enter said mixing passage with a swirling motion, said ring shaped structure further including a central passage through which the coating material is directed into said mixing passage and into the air moving with the swirling motion; wherein the pressurized air and coating material in said mixing passage form a mist in said elongate chamber moving toward said outlet while coating the exterior of an object inserted into said elongate chamber through said port. a housing structure including an elongate coating chamber having first and second opposite ends (32, 34), said elongate coating chamber including a port communicating with said first end for receiving the elongate object and an outlet at said second end, an air supply passage, a coating material supply passage, and a mixing passage communicating with said air supply passage and said coating material supply passage, said mixing passage further communicating with said elongate coating chamber; and a ring shaped structure communicating between said air supply passage and said mixing passage, said ring shaped structure configured to cause the pressurized air to enter said mixing passage with a swirling motion, said ring shaped structure further including a central passage through which the coating material is directed into said mixing passage and into the air moving with the swirling motion; wherein the pressurized air and coating material in said mixing passage form a mist in said elongate chamber moving toward said outlet while coating the exterior of an object inserted into said elongate chamber through said port. a ring shaped structure communicating between said air supply passage and said mixing passage, said ring shaped structure configured to cause the pressurized air to enter said mixing passage with a swirling motion, said ring shaped structure further including a central passage through which the coating material is directed into said mixing passage and into the air moving with the swirling motion; wherein the pressurized air and coating material in said mixing passage form a mist in said elongate chamber moving toward said outlet while coating the exterior of an object inserted into said elongate chamber through said port.
A method for controlling movement of two or more elevator cars of a multicar elevator system, wherein the method comprises: - selecting manually via a user interface of an operational entity an elevator car from among a plurality of elevator cars (110a-110n) to be moved, and - controlling movement of one or more other elevator cars from among the plurality of the elevator cars (110a-110n) away from a driving area of the selected elevator car, wherein the controlling of the movement of the one or more other elevator cars away from the driving area of the selected elevator car comprises: - controlling via the user interface of the operational entity the movement of the one or more other elevator cars away from the driving area, or - controlling dynamically movement of the one or more other elevator cars away from the driving area. - selecting manually via a user interface of an operational entity an elevator car from among a plurality of elevator cars (110a-110n) to be moved, and - controlling movement of one or more other elevator cars from among the plurality of the elevator cars (110a-110n) away from a driving area of the selected elevator car, - controlling via the user interface of the operational entity the movement of the one or more other elevator cars away from the driving area, or - controlling dynamically movement of the one or more other elevator cars away from the driving area.
A memory structure, comprising: a memory controller (220; 310) configured to receive a clock signal and to be coupled to a plurality of memory modules (320; 330) via separate data buses; wherein the memory controller is configured to be coupled to each memory module of the plurality of memory modules via a common address and control bus; wherein the memory controller (220; 310) is configured to send a separate chip select signal to each memory module of the plurality of memory modules (320; 330) to switch operations between the plurality of memory modules, wherein activation of a chip select enables operation of the memory module the chip select is sent to; wherein the memory controller (220; 310) is further configured to issue a first command to a first one of the plurality of memory modules (320; 330) across the common address and control bus and to issue a second command to a second one of the plurality of memory modules (320; 330) across the common address and control bus during a time period following the issuance of the first command, characterized in that the memory controller (220; 310) is configured to operate the memory structure in a dual channel mode by sending a separate clock enable signal and a separate chip select signal to each of the plurality of memory modules and to operate the memory structure in a single channel mode by sending the same clock enable signal and the same chip select signal to each of the plurality of memory modules. a memory controller (220; 310) configured to receive a clock signal and to be coupled to a plurality of memory modules (320; 330) via separate data buses; wherein the memory controller is configured to be coupled to each memory module of the plurality of memory modules via a common address and control bus; wherein the memory controller (220; 310) is configured to send a separate chip select signal to each memory module of the plurality of memory modules (320; 330) to switch operations between the plurality of memory modules, wherein activation of a chip select enables operation of the memory module the chip select is sent to; wherein the memory controller (220; 310) is further configured to issue a first command to a first one of the plurality of memory modules (320; 330) across the common address and control bus and to issue a second command to a second one of the plurality of memory modules (320; 330) across the common address and control bus during a time period following the issuance of the first command, characterized in that the memory controller (220; 310) is configured to operate the memory structure in a dual channel mode by sending a separate clock enable signal and a separate chip select signal to each of the plurality of memory modules and to operate the memory structure in a single channel mode by sending the same clock enable signal and the same chip select signal to each of the plurality of memory modules.
An implantable device comprising an antenna system (AS, AS') having two output terminals (T1, T2) and comprising at least two different coil units (L1, L2) with two terminals (T11, T21, T12, T22) each; characterized by the antenna system further comprising a control circuit for selectively switching between an operational mode, in which the coil units are connected in series with respect to voltages (U1, U2) induced by an external magnetic field to generate a maximal voltage at the output terminals, and a safety mode, in which the coil units are connected in anti-series with respect to said induced voltages to generate a minimal voltage at the output terminals, wherein in the safety mode the implantable device is protected from excessive external magnetic fields.
A storage battery control system for controlling an operation of a storage battery coupled to a power grid, comprising: multiple storage batteries disposed in a power grid; and a storage battery control apparatus, which is for controlling a charging and a discharging of the multiple storage batteries, and is communicably coupled to the multiple storage batteries and an energy management system, wherein the storage battery control apparatus: acquires storage battery information comprising a charging-discharging performance and a remaining capacity from the storage batteries; acquires power supply-demand prediction information showing a prediction of power supply and demand in a prescribed range from the energy management system, which manages the power supply and demand in the prescribed range; decides an individual charging-discharging rate for each of the storage batteries based on the storage battery information and the power supply-demand prediction information; and sends the decided individual charging-discharging rate to each of the storage batteries, and each of the storage batteries operates based on the individual charging-discharging rate received from the storage battery control apparatus. multiple storage batteries disposed in a power grid; and a storage battery control apparatus, which is for controlling a charging and a discharging of the multiple storage batteries, and is communicably coupled to the multiple storage batteries and an energy management system, wherein the storage battery control apparatus: acquires storage battery information comprising a charging-discharging performance and a remaining capacity from the storage batteries; acquires power supply-demand prediction information showing a prediction of power supply and demand in a prescribed range from the energy management system, which manages the power supply and demand in the prescribed range; decides an individual charging-discharging rate for each of the storage batteries based on the storage battery information and the power supply-demand prediction information; and sends the decided individual charging-discharging rate to each of the storage batteries, and each of the storage batteries operates based on the individual charging-discharging rate received from the storage battery control apparatus. acquires storage battery information comprising a charging-discharging performance and a remaining capacity from the storage batteries; acquires power supply-demand prediction information showing a prediction of power supply and demand in a prescribed range from the energy management system, which manages the power supply and demand in the prescribed range; decides an individual charging-discharging rate for each of the storage batteries based on the storage battery information and the power supply-demand prediction information; and sends the decided individual charging-discharging rate to each of the storage batteries, and each of the storage batteries operates based on the individual charging-discharging rate received from the storage battery control apparatus.