The development of computing power has encountered obstacles.

The lag in power grid infrastructure has hindered the rapid implementation of the computing power industry.

Currently, global AI large model training and intelligent reasoning businesses are experiencing continuous growth, and digital infrastructure such as intelligent computing centers and GPU clusters are entering a stage of large-scale and high-speed construction. The hardware of computing power has a fast iteration speed, the construction period of data centers is short, and the demand for production is extremely strong. However, the traditional power grid infrastructure projects such as power transmission and transformation, expansion of substations, and grid access review, which are the supporting power infrastructure, have long approval chains, long implementation cycles, and high construction difficulties. This has resulted in a structural mismatch where the construction of computing power is fast, but the power infrastructure is slow. From the current situation of domestic and international industries, the traditional power grid expansion model is no longer able to match the development rhythm of the computing power industry. Domestic intelligent computing projects generally face long review periods for grid access and delayed implementation of supporting projects; overseas computing power concentration areas have a queue period of 4 to 7 years for grid connection, and a large number of high-end computing facilities have been idle for a long time, with delayed project commissioning and prolonged investment return cycles, seriously restricting the release of digital economy capacity. In the current era of accelerated iteration of computing power competition on a quarterly and monthly basis, waiting for traditional power grids to be gradually equipped has become the biggest bottleneck for the implementation of the computing power industry.

Integrated Source-Storage-Calculation New Breakthrough

AIDC + photovoltaic storage off-grid mode, creating a fast power supply system for computing power

The core path to breaking through the lag in power grid infrastructure for computing power is to break away from the traditional reliance on power grids and build a new type of power infrastructure system that can be quickly deployed and operate independently off-grid. Combining photovoltaic energy with long-duration energy storage systems is no longer a simple energy support solution, but a lightweight, modular, and quickly deployable new model of computing power-specific power infrastructure. It completely changes the traditional construction logic of "building power grids first, then adding computing power". This model relies on the local development of clean energy in computing power parks, uses long-duration energy storage systems to complete the time sequence shifting and stable output of electrical energy, and does not need to wait for the implementation of long-distance power transmission and transformation projects, thus quickly forming a complete closed-loop power supply capability. Compared with the several-year construction cycle of traditional power infrastructure, the prefabricated and integrated construction method of photovoltaic storage integration can significantly compress the power supply cycle of computing power projects, achieve simultaneous design, construction, and commissioning of computing power facilities and power infrastructure, and truly solve the industry pain point of "computing power waiting for power". 

With the full opening of the new trillion-dollar computing power power supply service market, the industry competition logic has completely iterated: Renewable energy sources such as wind and solar energy naturally have intermittent and fluctuating characteristics. Simple direct supply of renewable energy cannot meet the 7×24-hour, high-vibration, and uninterrupted power consumption requirements of intelligent computing clusters. The speed of power infrastructure construction determines the speed of industry implementation. The industrial positioning of long-duration energy storage has upgraded from traditional peak shaving, backup, and auxiliary functions to a new type of power infrastructure supporting the rapid implementation of the digital economy.

Long-duration energy storage will become the core ballast stone of the entire off-grid power system, undertaking the key functions of cross-period storage and all-weather stable supply: all surplus green electricity during the peak photovoltaic generation period is stored, and continuous stable power release occurs during night, rainy weather, grid fluctuations or shortages, effectively smoothing out the fluctuations in renewable energy output and avoiding risks of computing power reduction and shutdown. At the same time, the system can cooperate with power-type energy storage to quickly stabilize the load impact of GPUs in milliseconds, achieve high-precision voltage and frequency stabilization, and fully adapt to the extreme power consumption characteristics of AI computing loads. The entire solution supports an elastic operation mode of off-grid independent power supply in the early stage and seamless grid connection and redundancy enhancement in the later stage: the project relies on the source-storage system to quickly start and seize the industry window period in the early stage; after the regional power grid is fully equipped, it seamlessly connects to the grid operation, forming dual power supply guarantees, and balancing deployment speed and long-term power supply reliability.

In the East-West computing hub nodes, regions rich in new energy, and overseas computing power markets, the photovoltaic + long-duration energy storage off-grid power model has extremely strong feasibility and replicability. It can not only quickly fill the power supply gap for computing power and accelerate the large-scale implementation of zero-carbon computing power, but also enhance the local energy absorption capacity of new energy, promote the deep integration of computing and power, and achieve multiple values such as the acceleration of the computing power industry, the reduction of the energy structure carbon emissions, and the increase of project benefits.

All iron liquid flow battery energy storage

Integrated solution, helping intelligent computing achieve carbon reduction and efficiency improvement

Based on the overall trend of computing and power coordination and the core demand for accelerating the infrastructure construction of computing power electricity, Jiuan Energy Storage has deeply focused on the core field of long-duration energy storage, focused on the energy pain points specific to the intelligent computing industry, continuously iterated the core technologies of long-duration energy storage and prefabricated and modularized system solutions, and launched the 48h-72h AIDC computing power and energy coordination ultra-long-duration energy storage - the ultimate solution for wind, solar, storage and computing power integration. The solution supports cross-day-level ultra-long continuous discharge of 48 to 72 hours, specifically designed for data centers, AIDC computing power bases of intelligent computing centers, to create a wind-solar-storage-computing power integrated energy supply system; relying on a long-duration energy storage product system with large capacity, long endurance, high safety and strong stability, it specifically addresses industry problems such as long power supply cycle of computing power projects, slow grid adaptation, large power supply fluctuations, and weak off-grid self-sustaining ability, and matches the all-weather uninterrupted power supply needs of computing power rooms. By continuously undertaking wind and solar clean energy for multi-day storage, it ensures the stable and uninterrupted operation of computing power loads, balances the mismatch between daytime power generation and all-day computing power electricity consumption, realizes green power supply for computing power loads at all times, reduces the electricity purchase cost and carbon emission indicators of data centers, and forms a complete implementation model of zero-carbon computing power park with deep coupling of wind power, solar power, long-duration energy storage and computing power cluster.

Jiuan Energy Storage takes "rapid deployment, off-grid stable supply, long-term low-carbon" as the core product logic, creates an integrated source-storage infrastructure solution suitable for intelligent computing scenarios, helps computing power projects break free from the constraints of traditional grid construction cycles, significantly shorten the power connection and commissioning cycle, improve equipment utilization rate, and reduce comprehensive energy costs. In the future, Jiuan Energy Storage will continue to deepen the deep coupling of long-duration energy storage and the digital computing power industry, with hard-core energy storage technology to lay a solid zero-carbon computing power energy foundation, deeply explore the new billion-dollar power connection service track, and continuously empower the efficient, rapid and large-scale implementation of intelligent computing infrastructure across the country and globally.