Liquid nitrogen injected into the concrete mixer cools fresh concrete at high ambient temperatures, preventing surface cracks while limiting nitrogen use.
Captured CO2 is converted into carbonate additives for cement, filling concrete pores to raise strength while locking carbon into the structure.
Incline and drum-speed sensing predict when concrete will rise above the discharge hole, enabling spillage prevention with less energy use.
Pre-packaged quantitative material packs enable on-site mixing and pouring, eliminating transportation waste while maintaining long-term quality stability.
A concrete shooting apparatus mixes bubbles into fiber-reinforced concrete to reduce excessive air content and slump during discharge.
Two separate foam generators produce distinct air volume fractions to create controlled bubble size distribution in gypsum slurry.
Autonomous control system automates mixer vehicle subcomponent positioning and mode activation via sensor inputs, reducing manual labor errors.
Surface-treated polymer fibers enhance concrete tensile strength and impact resistance without adding excessive weight or corrosion vulnerability.
Fiber-reinforced composite drum projections reduce weight and wear while maintaining structural integrity.
Surfactants reduce fiber clumping during conveying, enabling higher steel fiber content without clogging delivery lines.
A UHMWPE chute assembly uses embedded reinforcing rods and secured collars to maintain structural integrity.
A swiveling pipe mixer delivers dry building materials to construction sites.
An independent wiper suspension accommodates frame flexing and terrain vibrations, preventing concrete spillage onto external surfaces.
A mobile mixing apparatus with a transport mechanism moves a storage bin and mixing chamber to eliminate workflow delays from batch preparation.