Enzymatic solutions to create novel and exciting beers & beverages applying modern biotechnology
Tracks
Plenary 1
Wednesday, March 5, 2025 |
11:40 AM - 12:00 PM |
Speaker
Mr Jaydeep Chatterjee
Sr.Lead Application Scientist
IFF
Enzymatic solutions to create novel and exciting beers & beverages applying modern biotechnology
Abstract
The market for non-standard lagers like low carb and/or No- and Low alcohol (NOLO) beers are growing as consumers, look to moderate their alcohol intake and in many regions continue to seek out healthier options.
The brewing industry utilizes modern biotechnology to drive new product development, more sustainable beer production and better solutions for locally grown raw material and improving beer quality and stability.
IFFs enzymatic solutions provide answers to these challenges.
A newly developed transglucosidase which creates Iso Maltogenic Oligosaccharides (IMO) during mashing provides a new approach for NOLO production. This new solution transforms maltose into their unfermentable isomers and further to panose and dextran triosyl- D- glucose. Brewers can create wort with very low fermentability delivering a new tool for new product development for beverages and beers.
Breweries can use this solution in combination with an alcohol removal technology for no alcohol beers and/or directly to produce low alcohol beers with better taste and lower COGS.
These beers need an effective stabilization to match consumer expectations. Downstream process control using a proline-specific-protease (PEP) and the corresponding colloidal beer stability are obtained by gluten quantification through lateral flow device (LFD) technology. A new approach for effective colloidal stability measurements has been developed at IFF.
For a more sustainable approach, PEP is being applied in the fermenting vessel accompanied by alpha acetolactate decarboxylase(ALDC) enzyme.
The brewing industry utilizes modern biotechnology to drive new product development, more sustainable beer production and better solutions for locally grown raw material and improving beer quality and stability.
IFFs enzymatic solutions provide answers to these challenges.
A newly developed transglucosidase which creates Iso Maltogenic Oligosaccharides (IMO) during mashing provides a new approach for NOLO production. This new solution transforms maltose into their unfermentable isomers and further to panose and dextran triosyl- D- glucose. Brewers can create wort with very low fermentability delivering a new tool for new product development for beverages and beers.
Breweries can use this solution in combination with an alcohol removal technology for no alcohol beers and/or directly to produce low alcohol beers with better taste and lower COGS.
These beers need an effective stabilization to match consumer expectations. Downstream process control using a proline-specific-protease (PEP) and the corresponding colloidal beer stability are obtained by gluten quantification through lateral flow device (LFD) technology. A new approach for effective colloidal stability measurements has been developed at IFF.
For a more sustainable approach, PEP is being applied in the fermenting vessel accompanied by alpha acetolactate decarboxylase(ALDC) enzyme.
Biography
Jaydeep Chatterjee is the Senior Lead Application Scientist at IFF for the Asia Pacific and South Asia region. Jaydeep has international expertise and a proven track record based on a passion for innovation and progress. He is a skilled Master Brewer and worked at many breweries and ingredient companies in Asia, Europe, and Africa. He served in leadership roles across the complete supply chain in a career spanning 29 years. Jaydeep joined IFF in 2016 and in his current role focuses on innovation and sustainability solutions- using enzymes to support customers in brewing and distilling industry improve sustainability and efficiency of processes. Jaydeep obtained his engineering degree in Food Technology and Biochemical Engineering from Jadavpur University, India and a Master Brewer from Institute of Brewing and Distilling.