Mechanical vapor recompression and stacked vacuum chambers enable lower-temperature sugar crystallization, reducing color change, leaks, and cost.
Separate cooling circuits and heat exchangers let sugar magma cool by stage, controlling supersaturation and crystal growth for higher yield.
Optical sensors determine the metastable limit to prevent unwanted crystal nuclei formation while enabling rapid seed crystal growth.
Segmented modules with non-stick surfaces remove encrustation during boiling, preventing shutdowns while maintaining heat transfer efficiency.
Crystallizing isomaltulose to 5–60 µm particles then spray-drying at 50–95°C eliminates centrifugation, yielding non-sticky powder.
Real-time refractometer measurements enable closed-loop feedback that prevents conglomerate formation while maximizing sugar production efficiency.
Nesting drives in insulated pockets overcomes height constraints to improve crystal distribution.
High-pressure homogenization generates crystal nuclei without seed crystals, resolving temperature rise and reproducibility issues.
Evaporating mixed sugar solution and adding organic solvent to form uniform crystals, resolving uneven taste issues.