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SynBio4Flav

Providing a path for the standardized production of flavonoids

By using synthetic biology, the SynBio4Flav project aims to provide a cost-effective alternative to current flavonoid production. SynBio4Flav’s scientific challenge is to produce flavonoids by breaking down their complex biosynthetic pathways into standardized specific parts, which can be transferred to engineered microorganisms within Synthetic Microbial Consortia to promote flavonoid assembly through distributed catalysis. SynBio4Flav’s groundbreaking approach has great potential beyond the production of flavonoids. The project’s ultimate goal is to deliver a paradigm shift in biotechnological manufacturing of complex natural chemicals.

NEWLY LAUNCHED SYNBIO4FLAV VIRTUAL EXHIBITION, ENTER WITH A CLICK

We are happy to be able to give visitors the opportunity to better understand the SynBio4Flav project with our virtual exhibition. While we cannot host a public exhibition, we present the main features of the SynBio4Flav Project online, with animations, quizzes, and introducing visitors to the laboratories, research centres and studios of the partners. When we can host something publicly, we can’t wait to show you some of this work in situ, but in the meantime, join us for another kind of distributed experiment filled with discussion, education, inspiration and science!

Flavonoids are phytonutrients occurring naturally in plants. Thousands of flavonoids have been identified, each with its unique set of bioactivities that may be important for health benefits. Flavonoid-rich foodstuffs include parsley, onions, berries, black tea, green tea, oolong tea, all citrus fruits, bananas, sea-buckthorns, buckwheat, Ginkgo biloba, red wine and dark chocolate.  Depending on the type they can exhibit anti-oxidative, anti-inflammatory, anti-mutagenic and anti-carcinogenic properties. They could also support our immune and cardiovascular systems and help to modulate key functions of enzymes in our cells.

Flavonoids are used in numerous applications including functional food & beverages, dietary supplements, cosmetics, and pharmaceuticals. Despite the growing market demand for flavonoids, current production is constrained by conventional manufacturing processes using plant-based sources. Furthermore, their production remains elusive to chemical synthesis and biotech-based approaches.

 

Final arrangements underway for Thursday's Conversation on Metabolic Engineering. Do join us!
20 May 2021, 6pm CET.
Register at https://synbio4flav.eu/news/workshop-1-conversations-on-metabolic-engineering/

Welcome to the conversation! Save the date!
Questions and comments are welcome and will be put to the panel. Please drop your questions here or post them live during the event.
Find out more & register at https://synbio4flav.eu/news/workshop-1-conversations-on-metabolic-engineering/ @CNB_CSIC @EU_H2020 🇪🇺

Slick #video from @edkerk @chalmersuniv @chalmersnyheter explaining how computer simulations of #metabolic networks help predict #flavonoid production yields 👉https://synbio4flav.eu/virtual-exhibition/chalmers-university-of-technology
@EU_H2020 🇪🇺🔬

Where does the term #flavonoid come from? What makes research into #flavonoids so thrilling? What are their current and potential future applications? 🤔 Find the answers to your flavonoid queries at the @SynBio4Flav virtual exhibition! 🧐 👉https://synbio4flav.eu/virtual-exhibition/frequently-asked-questions/
@EU_H2020 🇪🇺🔬

Behind the scenes - what is the #architect doing in the @EU_H2020 project @SynBio4Flav here are statement by #LIQUIFERSystemsGroup
https://synbio4flav.eu/virtual-exhibition/liquifer-systems-group/

Uwe Bornscheuer, @_YI_Dong_ and Yannik Brack introduce us to @wissen_lockt's #robotic platform and its outstanding contribution to #flavonoid production using #synbio 👉https://synbio4flav.eu/virtual-exhibition/greifswald-university/

@EU_H2020 🇪🇺🔬

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