This independently corroborates rye as a raw-material handling constraint and prevents the mechanism from being reduced to starch conversion alone.
The page distinguishes NSP-driven viscosity from incomplete starch liquefaction or saccharification.
Novonesis says rye, wheat, barley, and triticale often produce viscous distilling mashes even after liquefaction and saccharification because water-binding non-starch polysaccharides are difficult to extract and solubilize; viscosity-reducing enzymes break those polymers down.
Same paragraph
Paragraph beginning “High viscosity in distilling...”
Issues with non-starch polysaccharides?
Named grains, viscosity condition, liquefaction-and-saccharification boundary, water-binding NSP mechanism, enzyme response, and locator checked on 2026-08-26.
Passage
Novonesis says rye, wheat, barley, and triticale often produce viscous distilling mashes even after liquefaction and saccharification because water-binding non-starch polysaccharides are difficult to extract and solubilize; viscosity-reducing enzymes break those polymers down.
Provenance
- Source: No access
- Section: Issues with non-starch polysaccharides?
- Locator: paragraph beginning “High viscosity in distilling...”
- Type: Paraphrase
- Verification: named grains, viscosity condition, starch-process boundary, water-binding NSP mechanism, enzyme response, and locator checked on 2026-08-26.
Context and annotation
The page distinguishes NSP-driven viscosity from incomplete starch liquefaction or saccharification. It independently corroborates rye as a raw-material handling constraint while preventing the mechanism from being reduced to starch conversion alone.