Modular Data Center for Shanxi Provincial Department of Transportation in China

In recent years, digital transformation within the transportation industry has entered a stage of rapid development. Business platforms including highway monitoring systems, transportation dispatching platforms, video surveillance systems, ETC data platforms, communication networks, and transportation data exchange systems have continued to expand in scale, making long-term stable operation of data center infrastructure increasingly critical.

Unlike ordinary office environments, transportation industry systems operate continuously around the clock. Traffic monitoring systems require real-time 24-hour online operation, dispatching platforms continuously process and transmit operational data, and video systems often operate under high-load conditions for extended periods. Once data center infrastructure experiences power interruption, overheating, or system failure, it may not only interrupt business operations but also affect transportation management efficiency and public service stability.

Before the project implementation, the original server room environment had gradually become unable to support the growing operational requirements. As the number of servers, storage systems, and networking devices continued to increase, the original UPS system remained under long-term high-load operation, and its limited scalability became increasingly apparent. In particular, future business expansion under traditional centralized UPS architecture would require complicated upgrade procedures and potentially system shutdowns, creating significant operational risks for transportation applications requiring uninterrupted operation.

At the same time, the original power distribution, cooling, and monitoring systems were deployed independently without centralized management capability. Maintenance personnel needed to monitor multiple separate systems, increasing operational complexity and reducing fault troubleshooting efficiency.

As transportation video systems and data platforms continued to upgrade, the density of IT equipment increased significantly, exposing the cooling limitations of the original infrastructure. Certain server room areas experienced persistent localized hot spot issues, affecting the long-term stability of critical equipment.

In addition, traditional server room construction methods lacked flexibility. Every infrastructure expansion required redesigning power distribution and cooling pathways, resulting in complicated construction procedures that could potentially impact ongoing transportation operations. The customer therefore hoped to fundamentally resolve these long-term operational and scalability issues through a new-generation micro modular data center architecture.

2. Project Requirements

During the planning stage, the customer focused more on long-term business continuity and infrastructure lifecycle management capability rather than only individual equipment specifications.

Power system reliability was considered especially critical. During transportation peak periods, any interruption affecting monitoring platforms, communication systems, or dispatching systems could directly impact transportation management efficiency. Therefore, the new UPS infrastructure not only needed to provide continuous and stable power supply capability but also support redundant operation and online maintenance functionality to minimize the impact of maintenance activities on ongoing business operations.

At the same time, the customer wanted to solve the expansion limitations associated with traditional server rooms. As transportation systems continue to grow in the future, the number of servers and storage systems will continue increasing. The new data center platform therefore needed to support flexible scalability, allowing gradual expansion of UPS capacity, cabinet deployment, and cooling resources according to future business growth without large-scale shutdown reconstruction.

Regarding environmental control, the customer was particularly concerned about the cooling challenges associated with long-term operation of high-density server infrastructure. Transportation industry systems frequently operate under sustained high-load conditions, and excessive temperature fluctuation inside the server room could not only affect equipment stability but also shorten equipment lifespan. The project therefore required a highly precise and stable temperature and humidity control environment.

In addition, the customer aimed to establish a unified intelligent operation and maintenance platform. The original server room suffered from fragmented monitoring systems and inconsistent alarm management capability, making it difficult for maintenance personnel to quickly understand overall infrastructure conditions. The new platform therefore needed to provide centralized monitoring of UPS systems, batteries, cooling systems, power distribution systems, and environmental conditions together with real-time alarm and remote management capability.

At the same time, the customer hoped to reduce future maintenance complexity and expansion costs through a more standardized and modular deployment architecture while improving overall infrastructure lifecycle management efficiency.

3. Solution

To meet the transportation industry’s requirements for uninterrupted operation and intelligent infrastructure management, Gottogpower deployed the GT-DC8000 Micro Modular Data Center solution integrated with the GTM300/60 300kVA intelligent modular UPS system, precision cooling systems, intelligent power distribution systems, battery backup systems, and a centralized environmental monitoring platform.

The data center adopts a standardized micro modular architecture that integrates power distribution, cooling systems, cabinet systems, monitoring systems, and structured cabling into unified modular infrastructure units. Compared with traditional server room construction methods, the micro modular architecture not only improves space utilization efficiency but also significantly reduces on-site construction complexity and shortens overall deployment cycles.

For the power infrastructure section, the project utilizes the GTM300/60 300kVA modular UPS system as the core power protection platform. The system adopts a modular redundant architecture, ensuring that even if an individual power module experiences failure, the remaining modules continue operating normally to guarantee uninterrupted operation of critical transportation systems.

Compared with conventional centralized UPS systems, the major advantage of modular UPS architecture lies in its flexible future expansion capability. As transportation business requirements continue to grow, capacity expansion can be completed simply by adding additional power modules without replacing the entire UPS infrastructure, significantly reducing future upgrade costs.

In addition, the Gottogpower UPS system supports hot-swappable online maintenance functionality, allowing maintenance personnel to replace or service modules without shutting down the system, thereby minimizing maintenance impact on transportation operations.

To ensure continuous operation during utility power interruptions, the project also deployed a highly reliable battery backup system capable of providing stable emergency power supply for transportation monitoring systems, communication systems, and data exchange platforms.

For cooling management, the project deployed high-precision computer room air conditioning systems optimized for data center applications. Through optimized airflow organization and hot/cold aisle management, the system provides highly accurate and stable temperature and humidity control conditions.

Compared with traditional comfort cooling systems, precision air conditioning systems are better suited for the high-density and high-load operating environment of transportation industry data centers while effectively reducing localized hot spot risks. At the same time, the system can dynamically adjust operating conditions according to real-time thermal load changes, improving overall energy efficiency while maintaining stable environmental conditions.

To further improve infrastructure operation and maintenance efficiency, the project additionally deployed a centralized intelligent environmental monitoring platform capable of unified visualization and management of the entire infrastructure system.

The platform continuously monitors UPS operating conditions, battery health conditions, precision cooling operating parameters, server room temperature and humidity changes, and power distribution system status while providing real-time alarms for smoke detection, water leakage, and abnormal environmental events.

Through centralized management and remote alarm functionality, maintenance personnel can quickly identify potential risks and rapidly respond to infrastructure abnormalities, significantly improving overall operation and maintenance efficiency.

4. Project Results

Following deployment, the overall operational stability and infrastructure management capability of the transportation data center were significantly improved.

The modular UPS system strengthened continuous power protection capability for critical transportation systems, reducing the risk of operational interruption caused by power instability. Meanwhile, the micro modular data center architecture successfully resolved the traditional server room limitations associated with low space utilization efficiency, complicated expansion procedures, and long deployment cycles, providing a more flexible infrastructure platform for future transportation business growth.

The precision cooling system improved the operating environment for high-density equipment, effectively reducing localized hot spot risks and improving the long-term stability of servers and networking systems.

At the same time, the centralized intelligent monitoring platform enabled unified infrastructure visualization and management, reducing manual inspection workload while significantly improving fault response efficiency.

Through this project, the customer successfully established a stable, secure, intelligent, and highly scalable modern transportation industry data center infrastructure platform, providing strong support for future smart transportation development and digital government operations.

Gottogpower continues to provide professional critical infrastructure solutions for transportation, government, healthcare, education, and data center industries, helping customers establish more reliable, efficient, and intelligent digital operating environments. For project consultation and customized infrastructure solutions, please feel free to contact us.