Moxa Inc.

A time synchronization method for a plurality of time synchronization domains includes building a plurality of precision time protocol (PTP) instances corresponding to the plurality of time synchronization domains; determining a grandmaster clock; and synchronizing, by the plurality of PTP instances, timings of the plurality of time synchronization domains according to the grandmaster clock.

An auto-configuration method for a time-sensitive networking (TSN) system includes obtaining, by a first OPC UA client module, a TSN configuration of a stream; transmitting, by the first OPC UA client module, the TSN configuration to an OPC UA server module of a centralized user configuration (CUC) in the TSN system; obtaining, by the CUC, a routing information and scheduling of the stream according to the TSN configuration and a network topology; sending, by the first OPC UA client module, a request to the OPC UA server to obtain the routing information and scheduling of the stream; and configuring the routing information and scheduling of the stream to a plurality of end stations in the TSN system after the plurality of end stations are online.

A case tampering detection device, used for a computer system covered with a computer case, includes at least one detector for detecting whether the computer case is opened and generating a detection result; a storage unit; a microcontroller unit, coupled to the storage unit, for generating a case tampering event and storing the case tampering event in the microcontroller unit or the storage unit when being powered; and a power supply unit, coupled to the at least one detector, for receiving the detection result, and supplying power to the microcontroller unit when the detection result indicates that the computer case is opened.

The disclosure is directed to a wireless transceiver circuit which includes not limited to: a first waveguide including a first port configured to transmit a Tx signal and to receive a Rx signal, a second port configured to receive the Rx signal from the first port, and a third port configured to transmit the Tx signal to the first port, a Rx path circuit connected to the second port of the first waveguide and configured to receive the Rx signal, a Tx path circuit configured to receive a pre-amplified signal to generate the Tx signal from the pre-amplified signal, and a detection circuit connected between the Tx path circuit and the third port of the first waveguide and configured to detect the Tx signal to turn on or turn off the Rx path circuit. The Tx signal and the Rx signal operate under TDD on a same frequency spectrum.

According to an aspect of the disclosure, the disclosure is directed to a wireless communication apparatus on a vehicle. The wireless communication the apparatus includes (not limited to): first wireless transceiver configured to transmit and receive data on a first communication path; a second wireless transceiver configured to transmit and receive data on a second communication path; and a processor electrically connected to the first wireless transceiver and the second wireless transceiver and configured at least to: establish, as a default mean of communication, multiple communication paths; transmit by the first wireless transceiver, as the default mean of communication, a first data packet to the network located outside of the vehicle on a first communication path; and transmit by the second wireless transceiver, as the default mean of communication, a first duplicated data packet of the first data packet to the network on a second communication path.

A time synchronization method for a time synchronization device, wherein the device is connected to a plurality of time synchronization domains through a plurality of ports, and the plurality of time synchronization domains use a plurality of PTP profiles. The method comprises determining whether each of the plurality of ports is a time receiving port or a time transmitting port; obtaining information of a grandmaster clock of the plurality of time synchronization domains; performing information conversion on the information of the grandmaster clock according to a PTP profile corresponding to each time transmitting port of the plurality of ports in the plurality of PTP profiles, so as to generate a plurality of clock information corresponding to each time transmitting port; and transmitting a corresponding clock information of the plurality of clock information to a corresponding time synchronization domain from each time transmitting port, so as to perform time synchronization.

A first communication device for handling a real-time data transmission includes an identification module for identifying at least one first real-time data, and for storing at least one first arrival time of the at least one first real-time data; a prediction module for predicting a second arrival time of a second real-time data according to the at least one first arrival time and a prediction algorithm in order to generate a first prediction result; a scheduling module for scheduling the second real-time data according to the first prediction result to generate a first scheduling result; a reservation module for reserving a transmission resource according to the first scheduling result; and a transmission module for transmitting the second real-time data according to the first scheduling result via the transmission resource.

An ejecting mechanism is provided and includes a main body, a driving component and a driven component. The main body is slidable relative to a casing. The driving component and the driven component are pivotable relative to the main body. When the driving component switches from a first position to a second position, the driving component drives the driven component to switch from a third position to a fourth position. During a process that the driving component and the driven component respectively switch from the first position and the third position to the second position and the fourth position, the driving component and the driven component respectively push two opposite lateral walls of the casing to drive the main body to slide from an installation position to a detachment position relative to the casing. Furthermore, an electronic device with the aforementioned ejecting mechanism is provided.

An apparatus connected to a Time-Sensitive Networking (TSN) switch in a TSN network is provided. The apparatus includes a transceiver, a storage medium, and a controller. The storage medium stores a first mapping of a traffic class to a time slot, and a second mapping of a frame type of a TSN stream to the traffic class. The controller is coupled to the transceiver and the storage medium, and is configured to determine a routing path and a Gate Control List (GCL) corresponding to the TSN stream based on a network topology of the TSN network, the first mapping, and the second mapping, and deploy the GCL to each TSN switch in the routing path via the transceiver.

A computing device for handling anomaly detection, comprises an encoder, for receiving an input image, to generate a first latent vector comprising a semantic latent vector and a visual appearance latent vector according to the input image and at least one first parameter of the encoder; and a training module, coupled to the encoder, for receiving the input image and the first latent vector, to update the at least one first parameter according to the input image and the first latent vector and a loss function.