Wine microbiology Omics Predictive models

From wine microorganisms to better decisions.

I integrate microbiology, multi-omics and machine learning to make fermentation, quality and stability more predictable.

Scientific pathway from soil and grapes to fermentation and predictive modelling
○ · ○Microbiome
â–ĄMulti-omics
⌬Prediction

A change in perspective

Do not merely describe.
Anticipate.

Traditional microbiology observes what has already happened. A predictive approach integrates microbial communities, functions, metabolites and process parameters to recognise the signals that matter earlier.

The goal is to translate complex data into thresholds, risk maps and operational guidance for wineries, consortia and R&D teams.

01Sample→
02Understand→
03Integrate→
04Predict→
05Validate

Applied expertise

From a production question
to scientific evidence.

Modular support, from targeted diagnosis to a complete research and innovation platform.

01

Fermentation troubleshooting

Identify the microbial and process causes of fermentation anomalies and develop targeted strategies for reproducibility, stability and quality.

AF & MLFspoilagestability
02

Microbiome & multi-omics

Study design, sampling and integration of metagenomics, functional genomics, metabolomics, volatilomics and culturomics.

shotgunmetabolomicsnetworks
03

Predictive models

Turn microbial, chemical and technological data into risk indicators, biomarkers and interpretable decision-support models.

machine learningbiomarkersearly warning
04

Data-driven R&D

Experimental development and validation of starters, microbial consortia, bioprotection and innovative processes under realistic winery conditions.

DoEvalidationtransfer
Explore services and methods

Fields of work

Wine as an ecosystem.

Frontier research and technology transfer across the vineyard-to-winery continuum.

01

Vineyard and winery microbiome

Map the soil–plant–grape–must–wine continuum and identify microbial hotspots.

02

Spontaneous and guided fermentation

Microbial ecology, succession and links between communities, metabolites, aroma and performance.

03

Malolactic fermentation beyond Oenococcus

Comparative genomics, metabolic modelling and validation of alternative lactic acid bacteria.

04

PIWI and sustainable innovation

Valorise the microbiota of disease-resistant cultivars, non-Saccharomyces yeasts and low-alcohol strategies.

05

Risk prevention

Brettanomyces, acetic acid bacteria, spoilage LAB and undesirable yeasts: from monitoring to early warning.

06

Designed microbial consortia

From natural interactions to more robust, controllable and functional synthetic communities.

Scientific profile

Rigorous research.
Transferable impact.

Giorgio Gargari is a microbiologist at the Department of Food, Environmental and Nutritional Sciences, University of Milan. His research combines microbial ecology, bioinformatics, biostatistics and omics technologies applied to fermentation systems.

“From descriptive microbiology to predictive microbial management, validated in real processes.”

Start with a concrete question

Which decision would you like
to make more predictable?

Fermentation, stability, microbial risk, microbiota valorisation or an omics project: together we can define the question, the required data and a realistic experimental pathway.

giorgio.gargari@unimi.it