mhurhangee/ep-ind-claims huggingface dataset:
A remote operation apparatus which remotely operates an operation target apparatus by transmitting a signal to the operation target apparatus, the remote operation apparatus including (i) an operating-side first communication section that is capable of transmitting a signal to the operation target apparatus via directional communication and (ii) an operating-side second communication section that is capable of transmitting/receiving a signal to/from the operation target apparatus via non-directional communication, characterized by, the remote operation apparatus comprising: operating-side pairing start means which transmits, to the operation target apparatus via the operating-side first communication section, a pairing start signal which instructs the operation target apparatus to start of a pairing process; and operating-side pairing executing means which executes the pairing process via the operating-side second communication section, the operating-side pairing start means setting the operating-side pairing executing means to a mode where the pairing process can be carried out, the operating-side pairing executing means set to the mode, transmitting a communication address of the remote operation apparatus to the operation target apparatus via the operating-side second communication section in response to receipt, via the operating-side second communication section, of (i) an operating-side apparatus information request signal for requesting the remote operation apparatus to transmit the communication address of the remote operation apparatus to the operation target apparatus and (ii) a communication address of the operation target apparatus. operating-side pairing start means which transmits, to the operation target apparatus via the operating-side first communication section, a pairing start signal which instructs the operation target apparatus to start of a pairing process; and operating-side pairing executing means which executes the pairing process via the operating-side second communication section, the operating-side pairing start means setting the operating-side pairing executing means to a mode where the pairing process can be carried out, the operating-side pairing executing means set to the mode, transmitting a communication address of the remote operation apparatus to the operation target apparatus via the operating-side second communication section in response to receipt, via the operating-side second communication section, of (i) an operating-side apparatus information request signal for requesting the remote operation apparatus to transmit the communication address of the remote operation apparatus to the operation target apparatus and (ii) a communication address of the operation target apparatus.
An apparatus for controlling a high voltage to low voltage DC-DC converter in an electric vehicle electrically connected to an ignition unit, an LDC, and one or more load devices, the apparatus comprising: a communication unit performing communication with the one or more load devices; and a control unit outputting a power control signal to the LDC, receiving state information from the LDC and the one or more load devices, wherein when ignition IGN signal state information on the ignition unit is in an OFF state, the control unit outputs a power on control signal to the LDC if there is a load device being in the ON state among the one or more load devices, and when the ignition IGN signal state information on the ignition unit is in an ON state, the control unit outputs a power off control signal to the LDC if all of the one or more load devices are in the OFF state. a communication unit performing communication with the one or more load devices; and a control unit outputting a power control signal to the LDC, receiving state information from the LDC and the one or more load devices,
A circumferential locking mechanism, comprising: a first component comprising a first body and pins; a second component comprising a second body and a limiting face on the second body, the limiting face extending in a circumferential direction and comprising segments (122', 122", 122"'), characterized in that the pins extend from the first body in an axial direction and are distributed on the first body along a first circumference; the radius of the limiting face of the second component tapering in both the axial and circumferential directions at the segments (122', 122", 122"'); and a third component for impelling the first component to engage with the second component, wherein the first component and the second component are arranged such that the first circumference and the limiting face are coaxial, and when the first component is engaged with the second component, the pins abut against the limiting face. a first component comprising a first body and pins; a second component comprising a second body and a limiting face on the second body, the limiting face extending in a circumferential direction and comprising segments (122', 122", 122"'), the pins extend from the first body in an axial direction and are distributed on the first body along a first circumference; the radius of the limiting face of the second component tapering in both the axial and circumferential directions at the segments (122', 122", 122"'); and a third component for impelling the first component to engage with the second component, wherein the first component and the second component are arranged such that the first circumference and the limiting face are coaxial, and when the first component is engaged with the second component, the pins abut against the limiting face.
A state-of-charge, SOC, estimation method of a battery pack, comprising: obtaining a current resting time, a current battery temperature, and a current measured open circuit voltage corresponding to a current initial power-on time of the battery pack (S101, S201, S501); and determining an SOC value corresponding to the current initial power-on time according to the current resting time, the current battery temperature, the current measured open circuit voltage, and a relational expression between an open circuit voltage, a resting time, a battery temperature, and an SOC value at predetermined different battery temperatures (S102, S202, S502), wherein the step of determining the SOC value corresponding to the current initial power-on time (S102, S202, S501) comprises: determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value. obtaining a current resting time, a current battery temperature, and a current measured open circuit voltage corresponding to a current initial power-on time of the battery pack (S101, S201, S501); and determining an SOC value corresponding to the current initial power-on time according to the current resting time, the current battery temperature, the current measured open circuit voltage, and a relational expression between an open circuit voltage, a resting time, a battery temperature, and an SOC value at predetermined different battery temperatures (S102, S202, S502), wherein the step of determining the SOC value corresponding to the current initial power-on time (S102, S202, S501) comprises: determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value. determining an open circuit voltage closest to the current measured open circuit voltage according to the current resting time, the current battery temperature, and a relational expression of open circuit voltages corresponding to multiple different SOC values at the predetermined different battery temperatures; and determining the SOC value corresponding to the current initial power-on time according to the determined open circuit voltage closest to the current measured open circuit voltage and its corresponding SOC value.
System for controlled distribution of components, particularly components for timepieces, for an installation for automatic assembly of all or part of an article produced from at least one of these components, particularly of a timepiece, the system comprising: - a vibrating device in which said components are placed in bulk, which is provided with first and second compartments (4a, 4b) connected together at their ends by first and second passage zones (5a, 5b) of this device such as to form a closed circuit in which the components can flow, and - an articulated gripping arm provided to distribute said components to said automatic assembly installation, the vibrating device comprising first and second planes (6a, 6b) inclined in opposite directions included, respectively, in the first and second compartments (4a, 4b), said components being able to progress along the first and second inclined planes (6a, 6b) towards a supply platform on which at least one component can be arranged in advance of its seizure by the articulated gripping arm, said supply platform being located in the second compartment at an exit of the second inclined plane, characterised in that the supply platform also comprises first and second parts (9a, 9b) said first part is connected to two guide portions, this first part having with these two guide portions a transverse section of essentially trapezoidal shape, the two guide portions each forming an obtuse angle with this first part and said second part comprising two guide portions and being integral with the first part and having the two guide portions defined on a part of the lateral sides of the first part, each guide portion extending transversely from a lateral side of the first part towards the corresponding side wall of the second compartment, these two guide portions extending longitudinally between an exit of the second inclined plane and a sorting/selection zone included on the upper face of the first part, from the lateral ends of these two guide portions are arranged in close proximity to lateral walls of the second compartment or even in contact with these walls. - a vibrating device in which said components are placed in bulk, which is provided with first and second compartments (4a, 4b) connected together at their ends by first and second passage zones (5a, 5b) of this device such as to form a closed circuit in which the components can flow, and - an articulated gripping arm provided to distribute said components to said automatic assembly installation,
A method comprising: generating, at a secured device comprising a security hardware module, first user authentication information based on a user input; generating, at the secured device, encryption key generation information corresponding to the first user authentication information; receiving, at the secured device, second user authentication information from an electronic device; and transmitting from the secured device to the electronic device the encryption key generation information corresponding to the first user authentication information when the second user authentication information matches the first user authentication information, wherein the first user authentication information and the encryption key generation information are secured by the security hardware module of the secured device. generating, at a secured device comprising a security hardware module, first user authentication information based on a user input; generating, at the secured device, encryption key generation information corresponding to the first user authentication information; receiving, at the secured device, second user authentication information from an electronic device; and transmitting from the secured device to the electronic device the encryption key generation information corresponding to the first user authentication information when the second user authentication information matches the first user authentication information, wherein the first user authentication information and the encryption key generation information are secured by the security hardware module of the secured device.
A continuous process for producing biogenic activated carbon, said process comprising: (a) providing a starting carbon-containing feedstock comprising biomass; (b) optionally drying said feedstock to remove at least a portion of moisture from said feedstock; (c) in one or more indirectly heated reaction zones, mechanically conveying said feedstock and countercurrently contacting said feedstock with a vapor stream comprising an inert gas and an activation agent comprising at least one of water or carbon dioxide, to generate solids, condensable vapors, and non-condensable gases, wherein said condensable vapors and said non-condensable gases enter said vapor stream; (d) removing at least a portion of said vapor stream from said reaction zone, to generate a separated vapor stream; (e) recycling at least a portion of said separated vapor stream, or a thermally treated form thereof, to said feedstock prior to step (c) and/or to a gas inlet of said reaction zone(s); and (f) recovering at least a portion of said solids from said reaction zone(s) as biogenic activated carbon, optionally wherein an additive is introduced before, during, or after one or more of steps (a)-(f), wherein said additive is selected from the group consisting of an acid, a base, a salt, a metal, a metal oxide, a metal hydroxide, a metal halide, iodine, an iodine compound, or a combination thereof. (a) providing a starting carbon-containing feedstock comprising biomass; (b) optionally drying said feedstock to remove at least a portion of moisture from said feedstock; (c) in one or more indirectly heated reaction zones, mechanically conveying said feedstock and countercurrently contacting said feedstock with a vapor stream comprising an inert gas and an activation agent comprising at least one of water or carbon dioxide, to generate solids, condensable vapors, and non-condensable gases, wherein said condensable vapors and said non-condensable gases enter said vapor stream; (d) removing at least a portion of said vapor stream from said reaction zone, to generate a separated vapor stream; (e) recycling at least a portion of said separated vapor stream, or a thermally treated form thereof, to said feedstock prior to step (c) and/or to a gas inlet of said reaction zone(s); and (f) recovering at least a portion of said solids from said reaction zone(s) as biogenic activated carbon,
A method for the elastic installation on pipelines of a detection device containing a sensor for detecting acoustic waves, which comprises: i. arranging a substantially rectangular, steel supporting plate, equipped with a pass-through opening, on the pipeline; ii. supporting the sensor for detecting acoustic waves on the plate, in correspondence with the pass-through opening, together with the associated electronics; iii. welding one of the two edges of the plate, orthogonal to the axis of the pipeline, onto the same pipeline and withholding the parallel sides, to the axis of the pipeline, of the supporting plate between two overturned L-shaped flanges and welded only onto the outer surface of the pipeline in correspondence with the other orthogonal edge; iv. covering the sensor for detecting acoustic waves and the associated electronics with a protection box, equipped with a top, which adapts itself to the plate; v. positioning a blocking spring between the sensor for detecting acoustic waves and the internal top of the box; vi. fixing the covering box to the supporting plate. i. arranging a substantially rectangular, steel supporting plate, equipped with a pass-through opening, on the pipeline; ii. supporting the sensor for detecting acoustic waves on the plate, in correspondence with the pass-through opening, together with the associated electronics; iii. welding one of the two edges of the plate, orthogonal to the axis of the pipeline, onto the same pipeline and withholding the parallel sides, to the axis of the pipeline, of the supporting plate between two overturned L-shaped flanges and welded only onto the outer surface of the pipeline in correspondence with the other orthogonal edge; iv. covering the sensor for detecting acoustic waves and the associated electronics with a protection box, equipped with a top, which adapts itself to the plate; v. positioning a blocking spring between the sensor for detecting acoustic waves and the internal top of the box; vi. fixing the covering box to the supporting plate.
A vapor production device, comprising: an air inlet; an air pump in fluid communication with the air inlet; a heating center in fluid communication with the air pump, the heating center having: a chamber configured to receive vaporizable material; and a heater; a compressor in fluid communication with the heating center; an outlet in fluid communication with the compressor; and a control panel, wherein: the air pump is configured to supply ambient air to the heating center; the heater is configured to heat the vaporizable material received in the chamber to a vaporization temperature to produce vaporized material; the heating center is configured to supply the ambient air supplied by the air pump and the vaporized material produced by the heater to the compressor; the compressor is configured to compress the ambient air supplied by the heating center and the vaporized material supplied by the heating center to form a compressed mixture, and to deliver the formed mixture to the outlet; the outlet is configured to deliver the compressed mixture delivered by the compressor to a storage container; and the control panel is configured to regulate power delivered to the heating center to convert vaporizable material to vaporized material at a vaporization temperature, and to control the compressor to deliver an optimal pressure for storage of the vaporized material, such that the compressor regulates a level of compression at which the compressed mixture is formed depending on a type of the storage container and a type of the vaporizable material. an air inlet; an air pump in fluid communication with the air inlet; a heating center in fluid communication with the air pump, the heating center having: a chamber configured to receive vaporizable material; and a heater; a chamber configured to receive vaporizable material; and a heater; a compressor in fluid communication with the heating center; an outlet in fluid communication with the compressor; and a control panel, wherein: the air pump is configured to supply ambient air to the heating center; the heater is configured to heat the vaporizable material received in the chamber to a vaporization temperature to produce vaporized material; the heating center is configured to supply the ambient air supplied by the air pump and the vaporized material produced by the heater to the compressor; the compressor is configured to compress the ambient air supplied by the heating center and the vaporized material supplied by the heating center to form a compressed mixture, and to deliver the formed mixture to the outlet; the outlet is configured to deliver the compressed mixture delivered by the compressor to a storage container; and the control panel is configured to regulate power delivered to the heating center to convert vaporizable material to vaporized material at a vaporization temperature, and to control the compressor to deliver an optimal pressure for storage of the vaporized material, such that the compressor regulates a level of compression at which the compressed mixture is formed depending on a type of the storage container and a type of the vaporizable material.
A circuit structure for efficiently demodulating a Frequency-Shift Keying, FSK, signal in a wireless charging device, the circuit structure comprises: a data sampling module configured to receive raw data from a coil, smooth the raw data, and sample period points in the data; a period point counting module configured to calculate a sum of the period points, the period point counting module having an input terminal connected to an output terminal of the data sampling module; a data distribution module configured to generate left channel data and right channel data, and divide data on the sum of the period points into two channels to achieve time-division multiplexing of a circuit, and the data distribution module having an input terminal connected to an output terminal of the period point counting module; and a period point processing module configured to smooth the left channel data and the right channel data, perform data bit determination and output a demodulated FSK signal, the period point processing module having an input terminal connected to an output terminal of the data distribution module. a data sampling module configured to receive raw data from a coil, smooth the raw data, and sample period points in the data; a period point counting module configured to calculate a sum of the period points, the period point counting module having an input terminal connected to an output terminal of the data sampling module; a data distribution module configured to generate left channel data and right channel data, and divide data on the sum of the period points into two channels to achieve time-division multiplexing of a circuit, and the data distribution module having an input terminal connected to an output terminal of the period point counting module; and a period point processing module configured to smooth the left channel data and the right channel data, perform data bit determination and output a demodulated FSK signal, the period point processing module having an input terminal connected to an output terminal of the data distribution module.