Clear answers for the first project conversation

The core differences are in five key areas: Construction Method:​ Non-destructive controllable uses micro-hole injection without excavation, while traditional methods rely on excavation/replacement or heavy machinery. Disturbance Level:​ Non-destructive controllable offers minimal disturbance (no vibration, no soil squeezing); traditional methods cause significant interference to the foundation and structure. Control Precision:​ Non-destructive controllable achieves millimeter-level precise lifting, which is difficult to match with traditional techniques. Construction Efficiency:​ Non-destructive controllable requires no production halt and has a shorter cycle; traditional methods require shutdowns and longer timelines. Environmental Performance:​ Non-destructive controllable produces no dust, noise, or spoil; traditional methods generate substantial pollution and waste.

It is ideal for foundation reinforcement and settlement repair of existing buildings, including: residential buildings (high-rise apartments, multi-story buildings, villas); industrial facilities (factories, production workshops, warehouses); public structures (commercial complexes, office buildings, hospitals, schools); and specialized installations such as large storage tanks and chemical equipment (allowing for repairs without halting production).

It is applicable to various weak soil conditions: soft soil, mucky soil, and silt (highly effective for high moisture content and high porosity); sandy soil, silt, and silty clay (improves bearing capacity and liquefaction resistance); collapsible loess (eliminates collapsibility and enhances stability); Karst terrain (fills sinkholes to prevent collapse); miscellaneous fill and backfill soil (improves uniformity and reduces settlement); and complex geological areas sensitive to the surrounding environment.

Key advantages include: Non-disruptive construction​ (residents do not need to relocate, and normal life is unaffected); Utility protection​ (avoids damaging underground pipelines during excavation, reducing renovation costs); Short duration​ (short cycle for a single building, not affecting overall renovation progress); and Eco-friendliness​ (no dust, no noise, improving the construction environment).

Secondary damage is prevented through five safeguards: Non-disruptive design​ (6-10mm small apertures reduce soil disturbance and avoid stress concentration); Graded lifting​ (adopts a "small-dose, multiple-injection" strategy to control lifting speed); Real-time monitoring​ (deploys displacement and stress sensors to monitor building deformation, with automatic alarms if thresholds are exceeded); Flexible lifting​ (the material reaction process forms uniform uplift force, avoiding excessive local stress); Professional team​ (experienced engineers formulate plans and provide on-site guidance).

The effect is long-term and stable, lasting over 20 years, synchronized with the designed service life of the building. Reasons include: the solidified material forms an irreversible composite structure with the soil, and its strength increases over time; the solidified body has strong impermeability, preventing strength decline caused by water erosion; overall reinforcement forms a continuous bearing layer, reducing the risk of differential settlement; and the material has excellent durability, being anti-aging and resistant to chemical corrosion.

Typically 7-30 days, depending on the project scale and geological conditions, which is over 50% shorter than traditional foundation treatment technologies (3-6 months). Specifically, small projects (e.g., a 1,000 m² factory floor) can be completed in 7-15 days, reaching temporary traffic strength in 7 days; large projects (10,000 m² or more) usually take 30-60 days, about 60% shorter than traditional processes, and can be constructed in zones simultaneously without affecting overall progress. The exact timeline depends on the actual situation.

No work stoppage or production halt is required. Construction can be carried out under normal production and operation conditions, and off-peak night construction can further reduce impact.

Using a visual intelligent monitoring system, the daily lifting volume is strictly controlled at 3-5cm (1.2-2 inches), with a precision of ±2mm, ensuring structural safety.

The overall cost is 30%-50% lower than traditional methods, mainly by saving expenses on excavation, material transportation, construction waste disposal, and lost production time.

No noise is generated. The equipment is miniaturized, and operational noise is ≤60dB, far below the U.S. environmental noise emission standards for construction sites (70dB daytime/55dB nighttime), making it suitable for urban core areas and sensitive environments.

No dust pollution. Wet operations are adopted, materials are injected in liquid form, and the entire process is enclosed, complying with green construction standards.

No impact. Construction is carried out through micro-holes with a diameter of only 6-10mm, and the diffusion radius is controlled within 3 meters (10 feet), causing no disturbance to surrounding structures and allowing precise avoidance of underground pipelines.

No impact. Construction is carried out through micro-holes with a diameter of only 6-10mm, and the diffusion radius is controlled within 3 meters (10 feet), causing no disturbance to surrounding structures and allowing precise avoidance of underground pipelines.