The HaiQi Data Center Industrial Park features proprietary poly-generation facilities that stably and continuously produce permanent BCR carbon credits and green thermal/electric energy; these are primarily used to offset the carbon emissions from its own computing operations, with any surplus carbon credits sold externally over the long term. This ensures autonomous control over carbon assets—shielding them from fluctuations in international carbon market supply, demand, and policy changes—while locking in long-term decarbonization costs.

Multinational cloud providers often face challenges in establishing a unified carbon credit system across geographically dispersed computing nodes. HaiQi offers standardized, containerized small-scale CCHP units equipped with a uniform DMRV (Digital Measurement, Reporting, and Verification) carbon monitoring system, ensuring consistent processes and accounting standards across global sites. Carbon credits generated at various locations are consolidated into the group's global carbon account, allowing this standardized solution to be rapidly replicated across computing hubs in Southeast Asia, Latin America, and domestic markets. 

Traditional grid power combined with central air conditioning typically yields a comprehensive energy efficiency of less than 45%. HaiQi's pyrolysis system achieves over 85% efficiency through the cascaded utilization of cooling, heating, and power, drastically reducing the total energy consumption per unit of computing power. This enables facilities to meet or exceed regulatory energy efficiency targets while generating carbon credits that qualify for exemptions in carbon emission assessments.

Unlike conventional approaches that rely solely on purchasing green electricity or external carbon credits, the HaiQi biochar solution delivers three quantifiable, unique values: ① converting local agricultural waste into resources, thereby reducing pollution from open-field burning; ② using biochar to improve nearby farmland and boost crop yields; and ③ achieving carbon-negative computing through permanent solid-state carbon removal. Real-world deployment cases provide on-site imagery and soil test data, significantly boosting ESG ratings.

Yes.

HaiQi's distributed EUBC mobile CCHP units provide a continuous 24-hour supply of green electricity for computing operations, supported by an integrated energy storage buffer. In the event of a grid outage, the system instantly ramps up output to fully cover the server room load, eliminating the need for diesel backup generators; continuous operation yields carbon-negative biochar, thereby removing the additional carbon emissions typically associated with backup power systems.

The system features AI-controlled heat exchange valves that adjust flow rates in real-time based on the liquid-cooling return temperature from the server room. By maintaining chilled water supply temperatures within a ±0.5°C fluctuation range without the need for auxiliary electric chillers, the system reliably meets the year-round heat dissipation demands of high-density liquid-cooled computing clusters.

HaiQi's EUBC mobile CCHP (Combined Cooling, Heat, and Power) solution integrates feedstock pretreatment, power generation, waste-heat-driven cooling, and carbon monitoring into a compact containerized unit. It sources feedstock locally—utilizing agricultural crop residues and forestry waste—to generate electricity for computing hardware and provide waste heat for base station climate control. Simultaneously, it produces small-batch BCR (Biochar Carbon Removal) credits, operating entirely off-grid without reliance on external public utilities.

The typical construction period for an AIDC computing center is around six months. For HaiQi's green energy infrastructure projects, the total timeline from preparation to the commencement of power generation is approximately two years; generally, the energy infrastructure is constructed first, with data center equipment installed once the site is fully equipped. If future expansion is planned, Haiqi prepares the site, raw materials, and power infrastructure in advance, deploying modular systems early to ensure rapid on-site construction during the expansion phase.