How to ensure the long-term stable operation of industrial computers in harsh environments such as substations?

In modern power systems, substations, as core nodes for power transmission and distribution, rely heavily on the reliable operation of industrial computers for their automation and intelligence levels.

Does the output interface of the time synchronization device fully cover the needs of the substation?

In modern power systems, time synchronization is no longer an auxiliary function, but a "nerve pulse" ensuring the safe, stable, and intelligent operation of the power grid.

How can the compatibility of autonomous and controllable industrial computer operating systems meet diverse needs?

An independent and controllable operating system needs to ensure application continuity through a dual path of binary compatibility and source code compatibility.

What are the considerations for choosing the communication protocol between the fault recording device and the host computer?

The MQTT protocol, as a lightweight publish/subscribe model, is designed specifically for IoT scenarios and is suitable for low-bandwidth, high-latency networks.

How can hardware redundancy design be implemented in autonomous and controllable industrial computers?

Dual NIC bonding technology virtualizes two physical NICs as a single logical interface, automatically switching links when either NIC fails to ensure network continuity.

Does the time synchronization device have electromagnetic interference and lightning protection designs?

In modern power system operation, time synchronization devices are no longer auxiliary equipment; they serve as the "nerve center" supporting relay protection, fault recording, dispatching automation, and coordinated control of smart substations.