Real-time feedback lets one facility retune sorting devices at another, reducing manual retuning while improving sorting accuracy and throughput.
Centralized feedback control reconfigures sorting equipment after jams or stream changes, improving accuracy and reducing manual retuning.
Feedback-driven control reconfigures sorting devices by layout position to handle jams and shifting material streams with less manual retuning.
Online sensors and ML adjust individual defoamer components in real time to control foam while cutting excess chemical use.
Delignified wood chips are thermomechanically compacted into complex 3D parts, combining high strength, low weight, and binder-free sustainability.
A fluidized-bed crystallizer grows larger calcium carbonate pellets to cut lime mud fouling, improve dewatering, and recover caustic more efficiently.
Radiation crosslinking branches non-functionalized organopolysiloxanes to control viscosity and improve foam suppression without platinum catalysts.
Controlled lime mud particle size and carbonation produce lower-SSA PCC, reducing sizing chemical use and improving printability.
Fixed-bed acid retardation resin recovers sulfuric acid from biomass hydrolysate, eliminating lime neutralization waste and enabling direct acid recycling.
Recirculating dregs through turbulence generators breaks particles into smaller fractions to enhance sedimentation rate in green liquor clarification.
Diverting excess white water into a second pulp tower where it separates from pulp reduces effluent volume and water consumption.
Adding carbon dioxide during dilution converts residual calcium oxide into calcium carbonate, preventing sedimentation and ring formations in lime kilns.
Inclined separator uses black liquor circulation to heat lignocellulosic feed, reducing reject levels and bleaching chemical consumption.
Curved inlet edges on slanted screen basket slots prevent solid material lodging in black liquor slurry streams.
Integrating microcrystalline cellulose and carbamate processes in a pulp mill minimizes nitrogen emissions by converting released ammonia back into urea.
Hydrophobic adsorbent particles concentrate dilute catalyst over 30-fold for reuse while minimizing solvent volume.