mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: an enclosure defining a first cavity adjacent an exterior surface of a wall and a second cavity adjacent an interior surface of the wall , opposite the exterior surface , the second cavity having environmental protection; a dividing wall protruding from the exterior surface of the wall , the dividing wall dividing the first cavity into an indicator housing and a switch housing ; a panel coupled to an exterior protrusion of the enclosure and spaced apart from the wall of the enclosure ; a hand-operated switch actuator coupled to the panel and spaced apart from the wall , the switch actuator having a head , a stem coupled to an inner surface of the head , and a magnet attached to the stem and positioned within the switch housing of the first cavity ; and a magnetically-responsive switch disposed within the second cavity of the enclosure opposite the switch actuator , the magnet to operate the magnetically-responsive switch through the wall when the switch actuator is in a first position. an enclosure defining a first cavity adjacent an exterior surface of a wall and a second cavity adjacent an interior surface of the wall , opposite the exterior surface , the second cavity having environmental protection; a dividing wall protruding from the exterior surface of the wall , the dividing wall dividing the first cavity into an indicator housing and a switch housing ; a panel coupled to an exterior protrusion of the enclosure and spaced apart from the wall of the enclosure ; a hand-operated switch actuator coupled to the panel and spaced apart from the wall , the switch actuator having a head , a stem coupled to an inner surface of the head , and a magnet attached to the stem and positioned within the switch housing of the first cavity ; and a magnetically-responsive switch disposed within the second cavity of the enclosure opposite the switch actuator , the magnet to operate the magnetically-responsive switch through the wall when the switch actuator is in a first position.
Ultrasonic transducer , in particular for the measurement of fluid volumes, comprising: a housing in which a contact element and a piezoceramic are arranged, where said piezoceramic comprises two electrodes of different polarity which are applied onto different sides (A, B) of said piezoceramic , where contact surfaces for the electrical contact of said two electrodes are arranged on the same side (A) of said piezoceramic , and said contact element comprises at least two contact sections of different polarity which are in electrically conductive contact with said contact surfaces of said two electrodes of corresponding polarity, characterized in that said contact element is formed to be pot-shaped, where said contact sections are arranged at the base of said contact element and are electrically contactable by way of edge sections of said contact element protruding from said base.
An information processing apparatus including an inertial sensor , the information processing apparatus comprising: first acquisition means (41, S101) for, based on an output from the inertial sensor at a first timing, acquiring a first value regarding an orientation or a position of the information processing apparatus; second acquisition means (41, S101) for, based on an output from the inertial sensor at a second timing different from the first timing, acquiring a second value regarding the orientation or the position of the information processing apparatus; first determination means (41, S104) for, based on at least the first value and the second value, determining whether or not a first condition is satisfied; first data compression means (41, S106) for, when the first determination means determines that the first condition is satisfied, compressing at least the first value and the second value by a first method, thereby generating first compressed data including data related to the first value and data related to the second value; and second data compression means (41, S107, S108) for, when the first determination means determines that the first condition is not satisfied, compressing at least the first value and the second value by a second method different from the first method, thereby generating second compressed data including data related to the first value and data related to the second value. first acquisition means (41, S101) for, based on an output from the inertial sensor at a first timing, acquiring a first value regarding an orientation or a position of the information processing apparatus; second acquisition means (41, S101) for, based on an output from the inertial sensor at a second timing different from the first timing, acquiring a second value regarding the orientation or the position of the information processing apparatus; first determination means (41, S104) for, based on at least the first value and the second value, determining whether or not a first condition is satisfied; first data compression means (41, S106) for, when the first determination means determines that the first condition is satisfied, compressing at least the first value and the second value by a first method, thereby generating first compressed data including data related to the first value and data related to the second value; and second data compression means (41, S107, S108) for, when the first determination means determines that the first condition is not satisfied, compressing at least the first value and the second value by a second method different from the first method, thereby generating second compressed data including data related to the first value and data related to the second value.
A flexible Radio-Frequency IDentification (RFID) tag comprising a flexible substrate layer whereby the flexible substrate layer is substantially plane and on which is fixed an antenna connected to a RFID chip , a second flexible layer placed directly over the said chip and antenna but without any direct mechanical connection to them, the second flexible layer remaining unattached from the antenna and the RFID chip , such that the substrate layer and the second layer form a protective inlay for the chip and the antenna , and wherein the said inlay is embedded in a flexible housing .
An image processing method, which is performed at a mobile device that comprises a camera , the method comprising: acquiring a video stream of an accident vehicle by the camera according to a user instruction; obtaining an image of a current frame in the video stream; determining whether the image meets a first predetermined criterion by inputting the image into a predetermined classification model , wherein the predetermined classification model comprises a convolutional neural network for use in the mobile device and wherein the predetermined classification model classifies the image based on whether the image is blurred and/or whether a light intensity is sufficient; adding a target box and/or target segmentation information to the image by inputting the image into a target detection and segmentation model when the image meets the first predetermined criterion, wherein the target box and the target segmentation information both correspond to a vehicle damage of the vehicle, and the target detection and segmentation model comprises a convolutional neural network for use in the mobile device ; displaying the target box and/or the target segmentation information to the user; and prompting the user accordingly based on whether the result of the target detection and segmentation model is in line with a second predetermined criterion. acquiring a video stream of an accident vehicle by the camera according to a user instruction; obtaining an image of a current frame in the video stream; determining whether the image meets a first predetermined criterion by inputting the image into a predetermined classification model , wherein the predetermined classification model comprises a convolutional neural network for use in the mobile device and wherein the predetermined classification model classifies the image based on whether the image is blurred and/or whether a light intensity is sufficient; adding a target box and/or target segmentation information to the image by inputting the image into a target detection and segmentation model when the image meets the first predetermined criterion, wherein the target box and the target segmentation information both correspond to a vehicle damage of the vehicle, and the target detection and segmentation model comprises a convolutional neural network for use in the mobile device ; displaying the target box and/or the target segmentation information to the user; and prompting the user accordingly based on whether the result of the target detection and segmentation model is in line with a second predetermined criterion.
A method for fault verification of a power adapter as an electronic device and comprising a protective casing, the electronic device comprising at least one capacitor as a device to-be-verified, the method comprising: applying (S210, S330) a first power-supply voltage to the electronic device until the device to-be-verified satisfies a material-failure condition; and applying (S220, S340) a second power-supply voltage to the electronic device to determine whether the electronic device has safety risk after applying the first power-supply voltage, wherein the first power-supply voltage is higher than the second power-supply voltage, and the safety risk is caused by material failure in the device to-be-verified, the material-failure condition is that electrolyte in said capacitor is ejected out, and the safety risk is a melting of said protective casing. applying (S210, S330) a first power-supply voltage to the electronic device until the device to-be-verified satisfies a material-failure condition; and applying (S220, S340) a second power-supply voltage to the electronic device to determine whether the electronic device has safety risk after applying the first power-supply voltage, wherein the first power-supply voltage is higher than the second power-supply voltage, and the safety risk is caused by material failure in the device to-be-verified, the material-failure condition is that electrolyte in said capacitor is ejected out, and the safety risk is a melting of said protective casing.
A method for producing a ceramic-aluminum bonded body obtained by bonding a ceramic member and an aluminum member , the aluminum member before bonding being composed of aluminum having a purity of 99.0 mass% or higher and 99.9 mass% or lower, the method comprising: a heat treatment step of subjecting the aluminum member to a heat treatment in a range of 400°C or higher and 645°C or lower; and a bonding step of bonding the aluminum member after the heat treatment step and the ceramic member via a brazing filler material including Si. a heat treatment step of subjecting the aluminum member to a heat treatment in a range of 400°C or higher and 645°C or lower; and a bonding step of bonding the aluminum member after the heat treatment step and the ceramic member via a brazing filler material including Si.
A method for controlling a multiphase electric motor system comprising an inverter circuit coupled to a multiphase electric motor having 2N+1 phases, where N is a positive integer larger than 0, said method comprising: modulating a plurality of carrier signals with a plurality of modulation signals in order to generate a multiphase motor supply signal comprising a modulated phase signal for each of the 2 N+1 phases, characterised by defining a set of at least 2(2N+1) time windows in each period of the multiphase motor supply signal; in each time window, modifying a selected group of modulated phase signals by adding a time offset to the carrier signal used to generate the selected group of modulated signals, thereby generating a shifted multiphase motor supply signal, wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and supplying the shifted multiphase motor supply signal to the multiphase electric motor. modulating a plurality of carrier signals with a plurality of modulation signals in order to generate a multiphase motor supply signal comprising a modulated phase signal for each of the 2 N+1 phases, characterised by defining a set of at least 2(2N+1) time windows in each period of the multiphase motor supply signal; in each time window, modifying a selected group of modulated phase signals by adding a time offset to the carrier signal used to generate the selected group of modulated signals, thereby generating a shifted multiphase motor supply signal, wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and supplying the shifted multiphase motor supply signal to the multiphase electric motor.
Assistance method for assisting a crew when smoke is present in an aircraft type vehicle , said vehicle comprising an electrical network provided with a plurality of electrical branches , each electrical branch comprising an electrical line electrically powering at least one electrical load , characterized in that the method comprises the following steps: - detecting smoke (STP1) in a zone of the vehicle using a smoke detector ; - transmitting a smoke detection signal from the smoke detector to an analysis computer ; - identifying (STP2), using the analysis computer , at least one defective electrical branch present in said zone from among said plurality of electrical branches ; - displaying (STP4), on a display and when smoke is present in said zone, a proposal for a crew of the vehicle to load-shed said at least one defective electrical branch at least when said at least one defective electrical branch comprises an essential electrical load for carrying out a current mission of the vehicle , and to automatically load-shed said defective electrical branch comprising an essential electrical load using a circuit breaker , contingent upon acceptance by said crew by means of a human-machine interface . - detecting smoke (STP1) in a zone of the vehicle using a smoke detector ; - transmitting a smoke detection signal from the smoke detector to an analysis computer ; - identifying (STP2), using the analysis computer , at least one defective electrical branch present in said zone from among said plurality of electrical branches ; - displaying (STP4), on a display and when smoke is present in said zone, a proposal for a crew of the vehicle to load-shed said at least one defective electrical branch at least when said at least one defective electrical branch comprises an essential electrical load for carrying out a current mission of the vehicle , and to automatically load-shed said defective electrical branch comprising an essential electrical load using a circuit breaker , contingent upon acceptance by said crew by means of a human-machine interface .
A parachute comprising: a membrane that has a truncated conical shape when opened an annular upper section airtight tube provided in a rim section of largest annular shape of the membrane; a compressed gas generation device for inflating the upper section airtight tube ; and a connector provided in a section of smallest annular shape of the membrane to be used for holding an object, characterized in that the upper section airtight tube is partitioned into small compartments in a circumferential direction of the upper section airtight tube , and the compressed gas generation device is configured to be capable of changing a pressure of each compartment of the upper section airtight tube . a membrane that has a truncated conical shape when opened an annular upper section airtight tube provided in a rim section of largest annular shape of the membrane; a compressed gas generation device for inflating the upper section airtight tube ; and a connector provided in a section of smallest annular shape of the membrane to be used for holding an object, characterized in that the upper section airtight tube is partitioned into small compartments in a circumferential direction of the upper section airtight tube , and the compressed gas generation device is configured to be capable of changing a pressure of each compartment of the upper section airtight tube .
A secondary battery, comprising: a cap plate comprising a first electrode terminal ; an electrode assembly comprising a main body , a first electrode tab provided to the main body and a second electrode tab provided to the main body ; and a first connecting piece connected between the first electrode tab and the first electrode terminal ; wherein the first electrode tab includes a first connecting portion and a first bending portion , the first connecting portion is provided below the first connecting piece , and the first bending portion connects the main body of the electrode assembly and the first connecting portion ; the secondary battery further comprises a first protecting piece fixed to a bottom of the first connecting portion ; characterized in that the first protecting piece includes a main portion and a first curve portion , the first curve portion is connected with an outer end of the main portion in a width direction (W) and is curved relative to the main portion ; the first bending portion is bent downwardly along a curved outer wall of the first curve portion . a cap plate comprising a first electrode terminal ; an electrode assembly comprising a main body , a first electrode tab provided to the main body and a second electrode tab provided to the main body ; and a first connecting piece connected between the first electrode tab and the first electrode terminal ; wherein the first electrode tab includes a first connecting portion and a first bending portion , the first connecting portion is provided below the first connecting piece , and the first bending portion connects the main body of the electrode assembly and the first connecting portion ; the secondary battery further comprises a first protecting piece fixed to a bottom of the first connecting portion ; characterized in that the first protecting piece includes a main portion and a first curve portion , the first curve portion is connected with an outer end of the main portion in a width direction (W) and is curved relative to the main portion ; the first bending portion is bent downwardly along a curved outer wall of the first curve portion .
A passive isolation valve comprising: a valve body comprising a valve inlet , a valve outlet , and a passage through the valve body interconnecting the valve inlet and the valve outlet ; a gate assembly secured to the valve body , the gate assembly comprising one or more hinged gate members that are shiftable, in response to an energetic event downstream of the valve outlet , between a valve open position, in which the valve inlet is in communication with the valve outlet , and a valve closed position, in which the one or more gate members block communication between the valve inlet and the valve outlet ; and at least one latch assembly configured to be deployed in response to shifting of the one or more gate members to the valve closed position and to hold the one or more gate members in the valve closed position. the at least one latch assembly comprising a trigger configured to be contacted by the one or more gate members during shifting of the one or more gate members between the valve open and valve closed positions, characterized in that the at least one latch assembly further comprises a securing element fastened to a base member of the latch assembly by a hinge pin , biased toward a retracted or undeployed position by a spring and configured to restrict movement of the one or more gate members from the valve closed position, and a shiftable body that is configured, upon activation of the trigger , to move the securing element into engagement with the one or more gate members . a valve body comprising a valve inlet , a valve outlet , and a passage through the valve body interconnecting the valve inlet and the valve outlet ; a gate assembly secured to the valve body , the gate assembly comprising one or more hinged gate members that are shiftable, in response to an energetic event downstream of the valve outlet , between a valve open position, in which the valve inlet is in communication with the valve outlet , and a valve closed position, in which the one or more gate members block communication between the valve inlet and the valve outlet ; and at least one latch assembly configured to be deployed in response to shifting of the one or more gate members to the valve closed position and to hold the one or more gate members in the valve closed position. the at least one latch assembly comprising a trigger configured to be contacted by the one or more gate members during shifting of the one or more gate members between the valve open and valve closed positions, characterized in that the at least one latch assembly further comprises a securing element fastened to a base member of the latch assembly by a hinge pin , biased toward a retracted or undeployed position by a spring and configured to restrict movement of the one or more gate members from the valve closed position, and a shiftable body that is configured, upon activation of the trigger , to move the securing element into engagement with the one or more gate members .
An apparatus comprising: a sensing circuit configured to generate a sensed physiological signal representative of cardiac activity of a subject; and an arrhythmia detection circuit configured to: monitor information corresponding to ventricular depolarization (V-V) intervals using the sensed physiological signal; determine a V-V interval distribution; determine a heart rate density index (HRDI) as a portion of samples of the V-V interval distribution corresponding to a V-V interval occurring most often in the distribution; and generate an indication of atrial fibrillation (AF) using the HRDI. a sensing circuit configured to generate a sensed physiological signal representative of cardiac activity of a subject; and an arrhythmia detection circuit configured to: monitor information corresponding to ventricular depolarization (V-V) intervals using the sensed physiological signal; determine a V-V interval distribution; determine a heart rate density index (HRDI) as a portion of samples of the V-V interval distribution corresponding to a V-V interval occurring most often in the distribution; and generate an indication of atrial fibrillation (AF) using the HRDI. monitor information corresponding to ventricular depolarization (V-V) intervals using the sensed physiological signal; determine a V-V interval distribution; determine a heart rate density index (HRDI) as a portion of samples of the V-V interval distribution corresponding to a V-V interval occurring most often in the distribution; and generate an indication of atrial fibrillation (AF) using the HRDI.