Simple field tests and a neural network replace complex laboratory workflows for soil classification in compressed earth block production.
To reduce concrete’s environmental impact, raw rice husks, binder, and water create hardened products with insulation and strength.
Industrial waste-derived calcium sulfate and silica replace clinker and natural gypsum while supporting cement strength and faster setting.
Microwave treatment and carbon nanoparticles modify waste plastic surfaces, reducing phase separation in asphalt or concrete binders.
Fine and coarse natural-pozzolan fractions are blended without intergrinding to improve early strength, reduce water demand, and support durability.
Property and carbon-footprint models screen cement compositions that meet wellbore barrier requirements while reducing production emissions.
Thermally treat recovered fly ash, burn out carbon, and mix hot ash with a second portion to cool it while reducing moisture and disposal risks.
CO2 and water densify concrete with reactive lime or magnesia at low temperature, forming carbonates that limit expansion and cracking.
Combines recycled lightweight aggregates with CSA cement, grout, and fiberglass rebar to balance low density, insulation, and structural strength.
A 0.2% chopped-basalt-fiber mix with crushed gneiss aggregate improves toughness and crack resistance in engineering lining concrete.
CO2 carbonation converts MgO into MgCO3, forming binder-free refractory bricks while reducing harmful vapors and supporting material recovery.
Modular silos, conveyors, a two-shaft mixer, and pumping equipment remain contained during transport, reducing setup effort between construction jobsites.
Physical foaming creates a low-density magnesium sulfate cement and fly ash structure, while vapor deposition hydrophobically modifies the surface for weather resistance.
Air classification and optional milling divide cement and SCMs into targeted PSD fractions that improve packing, early strength, and water demand.
Landfill disposal and natural-sand depletion are addressed by pretreating, drying, and after-treating discarded power plant and foundry sand for reuse.
Dehydrated raw clay and deflocculation address the strength-carbon tradeoff, enabling binder properties comparable to Portland cement with 30-85% fewer emissions.