91results about "Data switching current supply" patented technology

Aspects of the present disclosure include a detection system, a method, and / or a base node for providing the electrical energy to a plurality of edge nodes, transmitting a sensor interrogation signal to at least one of the plurality of edge nodes in the detection system, receiving, in response to the sensor interrogation signal, sensor information, send the sensor information to a predictor configured to: receive sensor training data, train an artificial intelligence engine using the sensor training data, identify an anomaly and an action associated with the anomaly based on providing the sensor information to the artificial intelligence engine, and provide the action, and performing the action provided by the predictor.

This application provides an energy saving method for a network device and a network device, to reduce power consumption of the network device in an energy saving mode to a watt level. The network device includes a processor, a direct current power supply, a latch, and a chip. The method includes: The processor sends a first instruction to the latch. The first instruction instructs the latch to output a first signal, the first signal is for controlling the direct current power supply to turn off a power supply, and the direct current power supply is a power supplying source of the chip and the processor in the network device. The latch receives the first instruction sent by the processor. The latch outputs the first signal to the direct current power supply based on the first instruction. The direct current power supply turns off the power supply based on the first signal, and stops supplying power to the chip and the processor, so that the network device enters the energy saving mode.

The application provides a vehicle-mounted Ethernet communication plug-in. The plug-in comprises an MCU unit, a switching chip, a PHY chip, a high-speed signal connector and a power connector. The MCU unit is configured to configure and manage the switching chip. The switching chip is connected with the PHY chip, the high-speed signal connector and the power connector, and is configured to provide at least two gigabit Ethernet interfaces and at least nine first hundred megabit Ethernet interfaces. One of the two gigabit Ethernet interfaces provides DC48V standard POE power supply externally through the power connector, and the other one of the two gigabit Ethernet interfaces is connected with a vehicle-mounted main control unit through the high-speed signal connector. The at least nine first hundred megabit Ethernet interfaces are respectively connected with one service unit through the high-speed signal connector.

According to an embodiment disclosed in this document, a data management device includes a first control unit electrically connected to a first digital tachograph (DTG) and a second control unit electrically connected to a second DTG. For example, the first control unit may be configured to store first driving data regarding a first zone of an its own vehicle in the first DTG and the second control unit may be configured to store second driving data regarding a second zone distinct from the first zone of the its own vehicle in the second DTG.

The invention relates to a control node (3) for a bus system (1), wherein the control node (3) is adapted to control a number of devices (6); comprising: a control unit (31) configured to send an address-request-signal as soon as supply power is applied onto the control node (3) via at least one power supply line (7) at a first or second power supply terminal (33, 34) and to receive an address-allocation-signal including a unique address via at least one data line (8); a switching unit (32) which is configured to electrically interconnect the first and second power supply terminal (33, 34) immediately and directly after control unit detects that the address-allocation-signal has been received.

The utility model relates to communication technical field, concretely is a kind of gigabit ethernet port protection circuit.The protection circuit includes: difference signal positive electrode circuit and difference signal negative electrode circuit, for forming signal transmission path;Difference impedance matching circuit is used to suppress signal reflection;Power filter network circuit is used to filter high-frequency noise and suppress common-mode interference.The circuit architecture design of the utility model systematically solves the core technical problem in the high-speed transmission of gigabit ethernet port.In the signal transmission level, two-stage resistance-capacitance isolation and dynamic impedance matching mechanism construct the parameter self-adaptive signal transmission path, through the impedance buffer of series resistance, the direct current isolation of coupling capacitor and the dynamic adjustment of difference pair network, effectively suppress signal reflection and direct current bias interference, ensure the integrity of 10Gbps high-frequency signal in long-distance transmission.

This wall-mounted exchange device offers enhanced functionality and can adapt to more demanding network power and network requirements, thereby improving the user experience. [Solution] The wall-mounted replacement device comprises a wall-mounted case 100 having a plurality of first through holes on its first surface and a second through hole on its second surface, and a circuit section including an integrated circuit module, a PoE power receiving terminal, a PoE power supply terminal 220, a charging terminal 230, and a USB interface terminal 240, wherein the PoE power receiving terminal is provided corresponding to the second through hole, and the PoE power supply terminal, charging terminal, and USB interface terminal are provided in one-to-one correspondence with the plurality of first through holes, and the integrated circuit module connects the PoE power receiving terminal to the PoE power supply terminal and / or the USB interface terminal so that an external power supply can supply power to the charging terminal and / or the USB interface terminal via the PoE power receiving terminal, and external equipment can transmit and receive network data via the PoE power receiving terminal and / or the USB interface terminal.

This invention provides a dual-channel MIMO indoor distributed network system and a dual-channel signal transceiver method. In the downlink direction, a first RRU converts the signal transmitted by the BBU into a first radio frequency (RF) signal and a first intermediate frequency (IF) signal to generate a local oscillator (LOS) signal; it outputs power; a frequency combiner combines the signal and power supply into a first signal; an antenna separates the first signal; a power-powered active mixer converts the first IF signal into a second RF signal; a power amplifier amplifies the signal power; the first RF signal and the second RF signal are transmitted; in the uplink direction, a third RF signal and a fourth RF signal are received; a power-powered low-noise amplifier amplifies the signal, converting the third RF signal into a second IF signal; the signals are combined into a second signal; a frequency combiner separates the second signal; and the first RRU converts the signal into a baseband signal and transmits it to the BBU. The solution provided by this invention can reduce the construction cost of an indoor distributed network system.

An Ethernet Advanced Physical Layer (Ethernet-APL) bridge system between an edge field device and an industrial network. The bridge system includes at least one Ethernet-APL switch and a plurality of redundant physical Ethernet-APL 10BaseT1L ports coupled to the at least one switch providing improved load distribution and high availability.

Passive Ethernet by-pass switches, methods of using the same, and systems including the passive Ethernet by-pass switches include a first connection configured to be coupled to a first Ethernet port, a second connection configured to be coupled to a second Ethernet port, and switching circuitry including at least one internal switch operable to allow network communication between the first connection, the second connection, and at least one Ethernet controller, the at least one internal switch including a depletion mode transistor operable to bridge the first connection to the second connection to establish communication between the first connection and the second connection.

The application relates to the technical field of intelligent diagnosis of power supply systems and optical communication cross technology, and discloses a power supply system health diagnosis method based on adaptive multi-dimensional ripple feature fusion, which comprises the following steps: short-time coarse sampling of a power supply ripple signal, dynamic adjustment of sampling parameters and window function types according to the coarse sampling result; extraction of frequency domain features, time domain features and time-frequency domain features to form a multi-dimensional feature vector; dynamic updating of a fault threshold value through Bayesian estimation based on historical normal feature samples in a fault feature sample library; adoption of weighted D-S evidence fusion of the fault confidence of the multi-dimensional feature vector based on the fault threshold value, and determination of a system state based on the fault confidence to output a diagnosis result; and hierarchical fault tracing when the system state is an abnormal state. The application realizes adaptive sampling and feature fusion, reduces the fault misjudgment rate, shortens the tracing time consumption, has low computing power consumption, and is suitable for real-time health diagnosis of a data center optical module power supply system.

Method, e.g. computer-implemented, for processing data associated with time information, e.g. data of a control device and / or of a product connectable with the control device, e.g. of a sensor arrangement connectable with the control device, wherein the method comprises: coordinating messages of a protocol for time synchronization, e.g. for synchronizing the control device with the sensor arrangement and / or with at least one further unit, with a configuration for a power saving state of at least one component, e.g. of the control device and / or of the sensor arrangement.

A method for operating a controller in a fault managed power (FMP) system, includes connecting the FMP front-end circuit of the controller electrically in parallel with the FMP transmission line, receiving power by the FMP front-end circuit and the output control and conditioning circuit of the controller from the FMP transmission line when the FMP transmitter transmits power over the transmission line during power transfer periods, in the low power and the high-power modes. It includes electrically isolating the output control and conditioning circuit from the FMP front-end circuit and the FMP transmission line during power sample periods and it causes the controller to perform one or more of receiving input data from a human operator, receiving sensor data from a sensor, presenting output data for the human operator to observe, or transmitting data to and receiving data from the FMP transmitter.

System and method for improving the shaving experience by providing improved visibility of the skin shaving area. A digital camera is integrated with the electric shaver for close image capturing of shaving area, and displaying it on a display unit. The display unit can be integral part of the electric shaver casing, or housed in a separated device which receives the image via a communication channel. The communication channel can be wireless (using radio, audio or light) or wired, such as dedicated cabling or using powerline communication. A light source is used to better illuminate the shaving area. Video compression and digital image processing techniques are used for providing for improved shaving results. The wired communication medium can simultaneously be used also for carrying power from the electric shaver assembly to the display unit, or from the display unit to the electric shaver.

According to an embodiment disclosed in this document, a signal processing device may include a main control unit, an auxiliary control unit electrically connected to the main control unit, and an end device electrically connected to the auxiliary control unit, in which the main control unit may transmit a wake-up signal to the auxiliary control unit when power is supplied, and the auxiliary control unit may bypass the wake-up signal and transmit the wake-up signal to the end device.

Provided are a system, method, and device for renewable energy usage within a network. According to embodiments, the system can include a memory storage storing computer-executable instructions, and at least one processor communicatively coupled to the memory storage, wherein the at least one processor is configured to execute the instructions to identify one or more network resources using a renewable energy source; and calculate an energy consumption value for a user using the identified one or more network resources.

A vehicle electrical system includes: a backbone line (BB_LM) extending at least in the longitudinal direction of the vehicle; multiple control boxes (CB) disposed on the backbone line; and branch lines (LS) connecting the control boxes to accessories (AE). Both the backbone line and the branch lines (LS) are provided with power lines (L1, L2B) having predetermined current capacities and communication lines (Lx) having predetermined communication capacities. The control boxes include: a switching circuit (CBb), a bridging circuit (CBc), and a connection section (Cnx) serving as a branch line connection to the branch lines; and a microcomputer (CBa) that distributes power from the backbone line to the branch lines by controlling the branch line connection according to a control program. The control program can be externally modified based on the accessories connected to the branch lines.

A system comprising: power sourcing equipment comprising: a power supply; and a plurality of ports each configured for transmitting Power over Ethernet, PoE, at a power of at least 100 watts; and a plurality of power interface modules, each of the power interface modules comprising: a plurality of ports for communication with a group of the ports at the power sourcing equipment; and an alternating current, AC, outlet delivering combined power received at the ports.

A circuit is provided comprising a first configuration register including a partner port value and an indicator, a second configuration register including a partner port value and an indicator, a first ethernet port associated with the first configuration register, the first ethernet port providing power over ethernet (POE) using a POE configuration in a plurality of POE configurations based on the values of the first configuration register, a second ethernet port associated with the second configuration register, and a management bus connection to receive values to store in the first and second configuration registers.

The application discloses a digital power communication power supply with enhanced node signal and a communication method thereof, which provides high-quality power supply voltage when signals are sent, adjusts input admittance to be optimal when signals are received, and realizes signal enhancement of receiving nodes in multi-node communication. The auxiliary power supply comprises a digital power communication module and an admittance correction module. The input side of the digital power communication module is connected with a DC bus, and the output side is connected with a converter control system. The input side of the admittance correction module is connected with a third winding of a transformer of the digital power module, and the output side is connected in parallel with the output of the digital power communication module, and is used for adjusting input / output admittance of the auxiliary power supply in different working modes. The application realizes information interaction among different converters in a DC micro-grid, guarantees high-quality power supply quality by adjusting output admittance when information is sent, and improves signal strength received by the auxiliary power supply by adjusting input admittance of the auxiliary power supply when multi-node communication is performed.

Embodiments of this disclosure relate to a sleep signaling handshake in Ethernet. A first communication device performs a handshake process with a second communication device, the handshake process being associated with a transition from an active mode to a low-power mode. i) After the handshake process is completed, and ii) at least until a) the expiration of a time period and b) the earlier of determining that the second communication device has silenced its transmitter, the first communication device sends data and / or idle symbols to the second communication device. The first communication device transitions to a low-power mode in conjunction with the handshake process.

This invention discloses a low-power standby method and system for a display screen, belonging to the field of electronic technology. The method includes: responding to a standby signal, a co-control network address, and a main control network address acquired by the main control module; comparing the co-control network address and the main control network address; if the co-control network address matches the main control network address, receiving the standby signal to obtain a standby control signal; based on the standby control signal, instructing a signal switching switch to open the network ports of the co-control module and the network switching module, and close the network ports of the main control module and the network switching module; and instructing a power management module to shut down the power supply to the main control module, thereby completing the low-power standby process of the display screen. The method disclosed in this invention can improve the reliability of the display screen's network wake-up function and reduce standby power consumption by shutting down the high-power main control module and transferring control authority to the co-control module.

This application relates to a power supply method and system. The power supply system includes at least two terminals, each terminal including a power receiving controller, at least one electrical appliance, and a power supply controller. The power receiving controller is connected to both the electrical appliance and the power supply controller. The method includes: when the power receiving controller of a current-level terminal is connected to the power supply controller of a previous-level terminal via a common ground, the power receiving controller of the current-level terminal, in response to a first voltage output by the power supply controller of the previous-level terminal, outputs a second voltage to the electrical appliance of the current-level terminal, and outputs the first voltage to the power supply controller of the current-level terminal. By connecting the power supply controller and the power receiving controller via a common ground, parallel connection of the power supply controllers of each terminal and the power receiving controllers of each terminal is achieved, thereby ensuring that the power receiving controllers of each terminal receive sufficient voltage, thus realizing cascaded power supply.

A test monitor extracts waveforms from a differential transmission line of an automobile network without disrupting the differential transmission line, and stores the data decoded from the extracted waveforms. The test monitor includes a first input configured to receive a voltage waveform from a voltage probe electrically coupled to the differential transmission line that electrically connects a first ECU device and a second device, a second input configured to receive a current waveform from a current probe electrically coupled to the differential transmission line, and one or more processors configured to receive the voltage waveform and the current waveform and determine a voltage of the first ECU device and a voltage of the second device based on the voltage waveform and the current waveform. The test monitor may be embodied in an FPGA. The test monitor enables monitoring of message transfers across a network in a non-intrusive and non-invasive manner, without the necessity of using a repeater or switch.

This invention relates to the field of image recognition technology and discloses a campus anti-bullying system that supports AI audio and video processing via POE or POF transmission. The system includes: a composite transmission link unit constructing an uncompressed RAW domain video stream channel; an AI edge computing processing unit extracting skeletal key points using a pose estimation algorithm and calculating the active aggression feature vector and defensive collapse feature vector of the interaction binary; and a logic gating module outputting a trigger signal when it detects a polarity differentiation between roles and the duration meets a threshold. This invention constructs an interaction asymmetry determination logic based on skeletal topology, deconstructs the interaction intent from a geometrical level, and utilizes the collaborative calculation of relative motion vectors and pose compactness coefficients to eliminate semantic ambiguity between playfulness and bullying in complex multi-person interaction scenarios, achieving high-precision real-time identification of malicious suppression behavior under edge computing power limitations.

A Powered Single Pair Ethernet (SPE) switch (1s) comprises first and second trunk cable interfaces (P1, N1, P2, N2), at least one pair of inductors (5, 29, 7, 27) connected in series with one another between the trunk cable interfaces, an internal power supply (18) for powering the SPE switch, a switching circuit (SC) connected to the internal power supply and the trunk cable interfaces, a respective voltage and / or current measurement circuit (8, 14, 11, 22, 23, 26) for each trunk cable interface, and a decision circuit (9, 10, 16, 24, 25) configured to signal whether one of the trunk cable interfaces has been shorted based on the voltage and / or current measurement circuits. The switching circuit (SC) supplies power to the internal power supply (18) and has a first state allowing bidirectional flow of current between the first and second trunk cable interfaces, and a second state interrupting flow of current between the first and second trunk cable interfaces when the decision circuit signals a short circuit.

The invention relates to a single-pair Ethernet network (SPE) (10) set up for data exchange between an actuator (1) of the automation technology and an electronic device (2) such as another actuator (2.1) of the automation technology or an edge device (2.2) or a central control station (2.3), comprising: at least two SPE transmit receivers (11) connected via an SPE data line (12), wherein the SPE data line (12) comprises SPE data cable (12.1) for data transmission, characterized by the fact that the SPE data line (12) has at least one data signal conditioning device (12.2), wherein the data signal conditioning device is configured to condition data signals passing between the SPE transmit receivers (11).

Power supply and monitoring in a ring network is described herein. An example apparatus includes a first power supply input / output (I / O) port, a second power supply I / O port, and a power control circuit configured to delay power from being supplied to the apparatus via the first power supply I / O port and the second power supply I / O port, and, upon a short circuit occurring on one of the first power supply I / O port and the second power supply I / O port during the delay, isolate the one of the first power supply I / O port and the second power supply I / O port on which the short circuit is occurring after the delay and supply power to the apparatus via the other one of the first power supply I / O port and the second power supply I / O port on which the short circuit is not occurring after the delay.

Devices, systems, methods, and processes for operating illumination devices on network devices are described herein. Illumination devices, such as light-emitting diodes, on network devices can provide useful status information when being observed by a technician. However, these illumination devices are often not being looked at in large data centers. As such, energy is often wasted on powering these illumination devices. In order to avoid this wasted power usage and increase sustainability, various embodiments described herein turn off illumination devices, such as network indicator lights and overhead lights, as a default state and illuminates them in response to a specific need. This need can be in response to a work order as well as to illuminate a path form an access point of the server room to the target network device that requires work by the network technician. Dynamically engaging illumination devices associated with network devices can reduce overall power usage.