In the THOR100-X11's hardware RAID architecture, the RAID controller stands as a central component, interfacing with both the operating system (OS) and the PCIe bus to manage data storage and retrieval efficiently. The RAID controller operates independently of the host CPU, utilizing dedicated hardware resources to execute RAID configurations and data management tasks. This autonomy not only minimizes CPU overhead but also ensures consistent performance across diverse operating environments.

Integral to the THOR100-X11's RAID architecture is the RAID controller driver, which serves as the intermediary between the hardware RAID controller and the operating system. This driver facilitates seamless communication between the RAID controller and the OS, enabling transparent access to RAID-configured storage volumes. By abstracting the complexities of RAID management, the controller driver ensures compatibility with various operating systems, including Linux and Windows-based platforms, while providing robust performance and reliability.

Moreover, the THOR100-X11's hardware RAID architecture capitalizes on the high-speed PCIe bus to achieve optimal data throughput and latency. By connecting directly to the PCIe bus, the RAID controller leverages the full bandwidth of PCIe Gen4 architecture, maximizing transfer speeds and minimizing data access latency. This direct connection ensures efficient communication between the RAID controller and other system components, further enhancing overall system performance.

Crucially, the hardware RAID architecture of the THOR100-X11 extends to the management of user data, encompassing both read and write operations. Leveraging RAID levels such as 0, 1, and 10, the RAID controller orchestrates data striping, mirroring, and parity calculations to optimize read and write performance while ensuring data integrity and fault tolerance. This comprehensive approach to data management guarantees reliable storage solutions for critical applications across industrial, railway, automotive, and electric vehicle sectors, making the THOR100-X11 a cornerstone of modern storage infrastructure.

Enhancing the integration technology within the THOR100-X11, the system boasts state-of-the-art CAN Bus communication technology, serving as a cornerstone for facilitating seamless data exchange and communication among various components within electric vehicle applications. This integration establishes a robust communication framework, enabling vital systems like the Electronic Control Unit (ECU) and Battery Management System (BMS) to effortlessly exchange critical data. Through CAN Bus technology, real-time information on battery status, power management, and system diagnostics can be efficiently transmitted and acted upon, ensuring optimal performance and safety within the electric vehicle ecosystem.

CAN bus (Controller Area Network Bus) serves as a vital communication network within vehicles, connecting Electronic Control Units (ECUs) and facilitating seamless data exchange throughout the entire in-vehicle system. This connectivity enables ECUs to share crucial information, allowing for efficient monitoring and control of various vehicle functions. Notably, CAN bus supports multiple protocols tailored to different vehicle types and applications, such as the OBDII protocol for smaller vehicles, the J1939 protocol for commercial trucks and heavy-duty vehicles, and the J1708 protocol for older models of commercial vehicles. The THOR100-X11's utilization of CAN Bus communication technology underscores its commitment to streamlined integration and interoperability within complex automotive systems, enhancing data reliability, system efficiency, and overall performance in electric vehicle applications.