ART-M13

Water Reducing Admixture

Superior Water Reduction Efficiency: Through directionally optimized molecular architecture and adsorption-dispersion synergy, cement particle dispersion efficiency is significantly enhanced, breaking traditional superplasticizer performance boundaries. This enables concrete to maintain excellent fluidity under low water-cement ratios while improving paste coating properties, providing critical performance support for high-strength/self-compacting concrete systems.

Multi-Component Synergistic Compatibility:It can be seamlessly integrated into the polycarboxylate-based water-reducing admixture, retarder, air-entraining agent, and mineral admixture system. By synergistically enhancing the intermolecular charge regulation and steric hindrance effect, it can flexibly adapt to the needs of different engineering scenarios. For example, it can adjust the setting time gradient, optimize the air content distribution, or improve the durability indicators, thereby achieving customized concrete solutions.

Enhanced Environmental Robustness: Features anti-interference molecular frameworks that maintain stable rheological performance despite raw material variations (e.g., cement quality fluctuations, aggregate mud content changes) or process deviations (e.g., shortened mixing times, extended transportation distances). This minimizes construction anomalies and ensures continuous quality control in engineering applications.

Sustained Workability Retention: Incorporates thixotropic modifying groups and slow-release functional units to establish a dynamic viscoelastic control system. Effectively suppresses segregation and bleeding under high-temperature conditions or prolonged transportation, maintaining slump loss rates below industry benchmarks. Reduces frequency of admixture compensation during construction, improving operational efficiency.

Manufactured Sand Adaptation Technology: Addresses high fines content and discontinuous grading in artificial aggregates through surface charge modification and steric hindrance effects. Optimizes interfacial transition zone (ITZ) microstructure, ensuring paste viscosity stability even in high-absorption manufactured sand systems. Balances fresh concrete workability with post-curing strength development.

Broad Compatibility Platform: Leverages modular molecular design principles to achieve compatibility with silicate cements, slag micropowder, fly ash, and other cementitious materials. Supports C30-C80 full-grade concrete systems, covering self-compacting concrete, ultra-high-rise pumping concrete, and other specialized applications. Demonstrates cross-system technical versatility across concrete formulations.

Volume Stability Optimization: Employs composite shrinkage suppression technology (combining chemical shrinkage reduction and physical compensation mechanisms) to mitigate early-age plastic shrinkage and long-term drying shrinkage risks. Enhances crack resistance through microstructural densification effects, meeting stringent crack control requirements for underground structures and mass concrete applications.