Technology Behind

GutGuard SynBIOTIC+

Methods used in the production of postbiotics

Heat Inactivation

Uses elevated temperatures to kill or deactivate probiotic cells, releasing or preserving their beneficial components for postbiotic use.

Ultraviolet (UV) Rays

Employs UV light to damage microbial DNA and inactivate the cells, aiding in the generation or extraction of postbiotic compounds.

High Pressure

Applies elevated pressure to disrupt and inactivate probiotic microorganisms, promoting the release of intracellular components valuable as postbiotics.

Dehydration

Removes water from the microbial environment, halting microbial activity and stabilizing beneficial metabolites for postbiotic formulation.

Pulsed Electric Field (PEF) Technology

Subjects cells to short bursts of high-voltage electrical pulses, causing membrane disruption and controlled cell inactivation that yields postbiotic substances.

Omic Technologies

Involves advanced genomic, proteomic, or metabolomic approaches to identify, characterize, or modify microbial strains to optimize postbiotic production.

Supercritical Fluids-CO2 Technology

Uses supercritical CO2 (high pressure and moderate temperature) to inactivate cells and extract bioactive compounds without damaging their functional properties.

Changing pH

Adjusts acidity or alkalinity to stress or inactivate probiotics, helping release or stabilize their metabolic byproducts for postbiotic use.

Sonication

Employs high-frequency sound waves to break down cell walls and release intracellular substances, facilitating the production of postbiotic components.

Ionizing Radiation

Utilizes gamma or electron beam radiation to inactivate microbes and potentially alter microbial metabolites, leading to the creation of postbiotic materials.