mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting faults in an electrical energy storage system including at least one battery, the method including: • a step of applying a charge or discharge setpoint to the battery, aiming for a theoretical setpoint current I cons to pass through the battery; • a step of measuring the current I Bat passing through the battery during the application of said setpoint; the method being characterized in that it includes: • a step of calculating m × n mean errors ( e T j)(t i j)) 1≤ j ≤ m,1≤ i ≤ n between the measured current I Bat and the theoretical setpoint current I cons in m × n time intervals ([t i j,t i j +T j]) 1≤ j ≤ m,1≤ i ≤ n, respectively, where m and n are integers, n ≥ 2 and m ≥ 1, where for any value of j between 1 and m and for any value of i between 1 and n, t i+l j = t i j + Δ t j where Δ t j is a predetermined sampling interval and where, for any value of j between 1 and m, T j is a predetermined duration; • a step of calculating, for any value of j between 1 and m, e j = max i = 1,..., n e T j t i j; • a step of incrementing a counter C j if e j exceeds a predetermined threshold in terms of absolute value or in terms of relative share; a fault being detected if C j exceeds a predetermined threshold. • a step of applying a charge or discharge setpoint to the battery, aiming for a theoretical setpoint current I cons to pass through the battery; • a step of measuring the current I Bat passing through the battery during the application of said setpoint; • a step of calculating m × n mean errors ( e T j)(t i j)) 1≤ j ≤ m,1≤ i ≤ n between the measured current I Bat and the theoretical setpoint current I cons in m × n time intervals ([t i j,t i j +T j]) 1≤ j ≤ m,1≤ i ≤ n, respectively, where m and n are integers, n ≥ 2 and m ≥ 1, where for any value of j between 1 and m and for any value of i between 1 and n, t i+l j = t i j + Δ t j where Δ t j is a predetermined sampling interval and where, for any value of j between 1 and m, T j is a predetermined duration; • a step of calculating, for any value of j between 1 and m, e j = max i = 1,..., n e T j t i j; • a step of incrementing a counter C j if e j exceeds a predetermined threshold in terms of absolute value or in terms of relative share;
A trocar set comprising: a handle portion comprising a grip, a connection part, and a gas valve, wherein the connection part extends from the grip and comprises an assembling channel, and the gas valve is connected to the connection part and communicates with the assembling channel; a first sleeve comprising an assembling end and a sleeving end, wherein the assembling end is assembled to the assembling channel; a second sleeve comprising a receiving end, wherein the sleeving end is inserted into the receiving end; and a gas tight assembly fixed to the second sleeve and comprising a gas tight sleeve and a gas tight ring, wherein the gas tight sleeve encloses the receiving end, and the gas tight ring is pressed by the gas tight sleeve to be tightly attached to the first sleeve. a handle portion comprising a grip, a connection part, and a gas valve, wherein the connection part extends from the grip and comprises an assembling channel, and the gas valve is connected to the connection part and communicates with the assembling channel; a first sleeve comprising an assembling end and a sleeving end, wherein the assembling end is assembled to the assembling channel; a second sleeve comprising a receiving end, wherein the sleeving end is inserted into the receiving end; and a gas tight assembly fixed to the second sleeve and comprising a gas tight sleeve and a gas tight ring, wherein the gas tight sleeve encloses the receiving end, and the gas tight ring is pressed by the gas tight sleeve to be tightly attached to the first sleeve.
A joining structure, comprising: a laser-transmitting resin member and a laser-absorbing resin member, wherein: the laser-absorbing resin member is a polymer alloy that has a sea-island structure in which a first resin component, which is not compatible with the laser-transmitting resin member, is used as a sea component and a third resin component, which is compatible with the laser-transmitting resin member, is used as an island component, and the polymer alloy comprises a dispersion material that is compatible with the first resin component; and an abundance ratio of the dispersion material in a melted/solidified part that constitutes the joining portion of the laser-transmitting resin member and the laser-absorbing resin member characterized in that said abundance ratio is higher than that of the dispersion material in the laser-absorbing resin member. the laser-absorbing resin member is a polymer alloy that has a sea-island structure in which a first resin component, which is not compatible with the laser-transmitting resin member, is used as a sea component and a third resin component, which is compatible with the laser-transmitting resin member, is used as an island component, and the polymer alloy comprises a dispersion material that is compatible with the first resin component; and an abundance ratio of the dispersion material in a melted/solidified part that constitutes the joining portion of the laser-transmitting resin member and the laser-absorbing resin member characterized in that said abundance ratio is higher than that of the dispersion material in the laser-absorbing resin member.
A method of identifying an audio accessory (14, 150) coupled to an electronic device (12, 110), comprising: applying at least one detection pulse (62, 264) to the audio accessory, each detection pulse being spectrally shaped to be inaudible to a human user, wherein the shaped detection pulse includes a high-frequency detection pulse; receiving at least one response signal corresponding to each detection pulse and measuring the at least one response signal after it has settled to determine an impedance of the audio accessory, wherein each detection pulse is sufficiently long such that the at least one response signal will settle to a stable current; and based on the determined impedance, identifying the audio accessory. applying at least one detection pulse (62, 264) to the audio accessory, each detection pulse being spectrally shaped to be inaudible to a human user, wherein the shaped detection pulse includes a high-frequency detection pulse; receiving at least one response signal corresponding to each detection pulse and measuring the at least one response signal after it has settled to determine an impedance of the audio accessory, wherein each detection pulse is sufficiently long such that the at least one response signal will settle to a stable current; and based on the determined impedance, identifying the audio accessory.
A sous vide cooker comprising: a housing extending along a longitudinal axis from an upper housing end to a lower housing end and comprising at least one display; a bulkhead secured at the lower housing end and extending along the longitudinal axis from an upper bulkhead end to a lower bulkhead end, the bulkhead and housing forming a first cavity therebetween; a skirt extending along the longitudinal axis from an upper skirt end to a lower skirt end located below the lower bulkhead end to form a second cavity between the skirt and the bulkhead, the skirt having one or more inlet openings and one or more outlet openings located below the lower bulkhead end; an impeller located in the second cavity; a motor operatively connected to the impeller; a heating element located within the second cavity; said sous vide cooker being characterized in that it further comprises: a metal heat sink located in the first cavity; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity. a housing extending along a longitudinal axis from an upper housing end to a lower housing end and comprising at least one display; a bulkhead secured at the lower housing end and extending along the longitudinal axis from an upper bulkhead end to a lower bulkhead end, the bulkhead and housing forming a first cavity therebetween; a skirt extending along the longitudinal axis from an upper skirt end to a lower skirt end located below the lower bulkhead end to form a second cavity between the skirt and the bulkhead, the skirt having one or more inlet openings and one or more outlet openings located below the lower bulkhead end; an impeller located in the second cavity; a motor operatively connected to the impeller; a heating element located within the second cavity; said sous vide cooker being characterized in that it further comprises: a metal heat sink located in the first cavity; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity. a metal heat sink located in the first cavity; and a TRIAC physically attached in conductive thermal communication to the heat sink and located in the first cavity.
A method for continuous and efficient casting roll of magnesium alloy plates comprising: providing plural induction furnaces, resistance furnace, casting roll and rollers; adding metal elements into the induction furnaces, the metal elements comprising Mg ingots or Mg alloy, the metal elements being smelted in the induction furnaces and then flow into the resistance furnace; Controlling temperature of the Mg melt in the resistance furnace, wherein there are at least two temperature controlling areas communicated with each other, and a difference of temperatures is constant; transferring the Mg melt into biting area through a transferring pipe and modeling the mg melt into Mg plate, the temperature of the Mg melt into the biting area being 690 ± 10°C; Rolling the Mg plate in the rollers and each band of the rollers having a working temperature 250∼350°C, and the difference of temperature is ± 10°C. providing plural induction furnaces, resistance furnace, casting roll and rollers; adding metal elements into the induction furnaces, the metal elements comprising Mg ingots or Mg alloy, the metal elements being smelted in the induction furnaces and then flow into the resistance furnace; Controlling temperature of the Mg melt in the resistance furnace, wherein there are at least two temperature controlling areas communicated with each other, and a difference of temperatures is constant; transferring the Mg melt into biting area through a transferring pipe and modeling the mg melt into Mg plate, the temperature of the Mg melt into the biting area being 690 ± 10°C; Rolling the Mg plate in the rollers and each band of the rollers having a working temperature 250∼350°C, and the difference of temperature is ± 10°C.
An apparatus for charge neutralization, the apparatus comprising: an emitter nozzle comprising: an emitter; and a housing configured to hold the emitter, the housing comprising a plurality of cams on an exterior of the housing; and a nozzle receptacle (204, 700, 800) configured to enable insertion and removal of the emitter nozzle, and to hold the emitter nozzle in place during operation of the emitter nozzle, the nozzle receptacle comprising: a plurality of threads (302a, 302b) corresponding to the plurality of cams on the emitter nozzle, the plurality of threads (302a, 302b) having a first flank angle; and a plurality of shelves (304a, 304b) located at respective distal ends of the plurality of threads (302a, 302b), the plurality of shelves (304a, 304b) having a second flank angle less than the first flank angle. an emitter nozzle comprising: an emitter; and a housing configured to hold the emitter, the housing comprising a plurality of cams on an exterior of the housing; and an emitter; and a housing configured to hold the emitter, the housing comprising a plurality of cams on an exterior of the housing; and a nozzle receptacle (204, 700, 800) configured to enable insertion and removal of the emitter nozzle, and to hold the emitter nozzle in place during operation of the emitter nozzle, the nozzle receptacle comprising: a plurality of threads (302a, 302b) corresponding to the plurality of cams on the emitter nozzle, the plurality of threads (302a, 302b) having a first flank angle; and a plurality of shelves (304a, 304b) located at respective distal ends of the plurality of threads (302a, 302b), the plurality of shelves (304a, 304b) having a second flank angle less than the first flank angle. a plurality of threads (302a, 302b) corresponding to the plurality of cams on the emitter nozzle, the plurality of threads (302a, 302b) having a first flank angle; and a plurality of shelves (304a, 304b) located at respective distal ends of the plurality of threads (302a, 302b), the plurality of shelves (304a, 304b) having a second flank angle less than the first flank angle.
Spectacles with interchangeable eyeglass lenses, where the spectacles comprise a spectacles frame and eyeglass lenses, where each eyeglass lens is fitted in a moun which is secured to an outer edge 2. of the eyeglass lens, and where at least one of the mount and the spectacles frame comprises a coupling element, which can detachably couple together the mount and the spectacles frame, and in that the mount comprises an oblong recess designed to receive a partial frame section of the spectacles frame, characterized in that a pin, preferably a cylindrical pin, is mounted in aligned boreholes in each side wall of the mount's recess and that the coupling element is in the form of a U-shaped notch formed to interact with the pin.
A floodlight controller for activating and deactivating a floodlight device, the floodlight controller comprising: a housing; a camera including an image sensor and having a field of view; at least one motion sensor, wherein the at least one motion sensor is positioned adjacent a tapered lower portion of the housing; wherein the tapered lower portion of the housing includes an opening that allows the at least one motion sensor to be exposed to incoming infrared light; and wherein the opening lies in a plane P that is not perpendicular to a vertical axis A of the housing of the floodlight controller. a housing; a camera including an image sensor and having a field of view; at least one motion sensor, wherein the at least one motion sensor is positioned adjacent a tapered lower portion of the housing; wherein the tapered lower portion of the housing includes an opening that allows the at least one motion sensor to be exposed to incoming infrared light; and wherein the opening lies in a plane P that is not perpendicular to a vertical axis A of the housing of the floodlight controller.
A clutch assembly comprising: an output component including an output shaft extending along an axis and output teeth; a movable component disposed adjacent to the output component, the movable component including drive teeth and an annular engagement weight track including a groove circumscribing the axis, and movable between an engaged position, wherein the drive teeth are drivingly engaged with the output teeth, and a disengaged position, wherein the drive teeth are not engaged with the output teeth; and an input component disposed adjacent to the movable component, the input component including engagement weight pockets; and spherical engagement weights disposed in each engagement weight pocket; wherein the groove has a generally uniform radial cross section across its circumference; and characterized in that the groove defines at least a quarter of a torus; wherein the engaged position puts the drive teeth and output teeth in ratcheting engagement such that torque from the input component can drive the output component in only one rotational direction. an output component including an output shaft extending along an axis and output teeth; a movable component disposed adjacent to the output component, the movable component including drive teeth and an annular engagement weight track including a groove circumscribing the axis, and movable between an engaged position, wherein the drive teeth are drivingly engaged with the output teeth, and a disengaged position, wherein the drive teeth are not engaged with the output teeth; and an input component disposed adjacent to the movable component, the input component including engagement weight pockets; and spherical engagement weights disposed in each engagement weight pocket; wherein the groove has a generally uniform radial cross section across its circumference; and characterized in that the groove defines at least a quarter of a torus;
A method for locating a wearable device, the method comprising: determining, by the wearable device, whether a short range communication connection with a first terminal device is disconnected; and upon determining that the short range communication connection with the first terminal device is disconnected, broadcasting, by the wearable device, a notification message for instructing at least one second terminal device to establish a short range communication connection with the wearable device and instructing the at least one second terminal device to send a connection notification to a server so that the server locates the wearable device according to the at least one second terminal device; characterised in that the notification message comprises identity information of a user who uses the wearable device and a distress signal, and the notification message is further configured to instruct the at least one second terminal device to report to the server location information of the at least one second terminal device and the identity information. determining, by the wearable device, whether a short range communication connection with a first terminal device is disconnected; and upon determining that the short range communication connection with the first terminal device is disconnected, broadcasting, by the wearable device, a notification message for instructing at least one second terminal device to establish a short range communication connection with the wearable device and instructing the at least one second terminal device to send a connection notification to a server so that the server locates the wearable device according to the at least one second terminal device; characterised in that the notification message comprises identity information of a user who uses the wearable device and a distress signal, and the notification message is further configured to instruct the at least one second terminal device to report to the server location information of the at least one second terminal device and the identity information.
A control system for a combined cycle gas turbine plant of single shaft configuration, wherein the control system is configured to perform: monitoring a plant demand, and switching the plant from a rated mode of operation, in which the plant is operated on gas turbine output and steam turbine output, to a reduced load mode of operation, in which the plant is operated on gas turbine output alone, if the plant demand decreases below a predetermined threshold, characterised in that: the control system is configured to perform running the steam turbine under full speed no load conditions in the reduced load mode of operation. monitoring a plant demand, and switching the plant from a rated mode of operation, in which the plant is operated on gas turbine output and steam turbine output, to a reduced load mode of operation, in which the plant is operated on gas turbine output alone, if the plant demand decreases below a predetermined threshold, characterised in that: the control system is configured to perform running the steam turbine under full speed no load conditions in the reduced load mode of operation.
Ink composition comprising: - 1 - 40 weight% of a latex resin, - 0.5 - 15 weight% of a colorant; - 20 - 80 weight% water; - 1 - 30 weight% of an acetal cosolvent, wherein the acetal cosolvent is selected from the group consisting of glycerol formal, alkyl acetals and linear diether acetals; wherein all amounts are relative to the total ink composition. - 1 - 40 weight% of a latex resin, - 0.5 - 15 weight% of a colorant; - 20 - 80 weight% water; - 1 - 30 weight% of an acetal cosolvent, wherein the acetal cosolvent is selected from the group consisting of glycerol formal, alkyl acetals and linear diether acetals;
An apparatus, comprising: a housing defining an inner volume in fluid communication with an inlet port and an outlet port of the housing, the inlet port configured to receive bodily-fluid from a patient; an actuator mechanism disposed in the inner volume of the housing and configured to be transitioned from a first configuration to a second configuration to define a pre-sample reservoir in fluid communication with the inlet port to allow the pre-sample reservoir to receive a pre-sample volume of bodily-fluid, the actuator mechanism configured to be moved from the second configuration to a third configuration after the pre-sample reservoir receives the pre-sample volume of bodily-fluid to place the inlet port in fluid communication with the outlet port; and an adapter coupled to the housing to collectively define a sample reservoir fluidically isolated from the pre-sample reservoir and in fluid communication with the outlet port, the adapter configured to be moved relative to the housing to allow the sample reservoir to receive a sample volume of bodily-fluid via the outlet port, the adapter configured to be placed in fluid communication with an external fluid reservoir after the sample volume of bodily-fluid is received in the sample reservoir to transfer at least a portion of the sample volume of bodily-fluid into the external fluid reservoir. a housing defining an inner volume in fluid communication with an inlet port and an outlet port of the housing, the inlet port configured to receive bodily-fluid from a patient; an actuator mechanism disposed in the inner volume of the housing and configured to be transitioned from a first configuration to a second configuration to define a pre-sample reservoir in fluid communication with the inlet port to allow the pre-sample reservoir to receive a pre-sample volume of bodily-fluid, the actuator mechanism configured to be moved from the second configuration to a third configuration after the pre-sample reservoir receives the pre-sample volume of bodily-fluid to place the inlet port in fluid communication with the outlet port; and an adapter coupled to the housing to collectively define a sample reservoir fluidically isolated from the pre-sample reservoir and in fluid communication with the outlet port, the adapter configured to be moved relative to the housing to allow the sample reservoir to receive a sample volume of bodily-fluid via the outlet port, the adapter configured to be placed in fluid communication with an external fluid reservoir after the sample volume of bodily-fluid is received in the sample reservoir to transfer at least a portion of the sample volume of bodily-fluid into the external fluid reservoir.