Like most other food products, the cost of coffee beans is surging—up nearly 43% this year alone. On top of pandemic-related shipping and supply chain issues, extreme weather has damaged coffee crops in Brazil and political protests have stalled exports from Colombia.
“Conventional coffee production is notoriously associated with several problematic issues, such as unsustainable farming methods, exploitation, and land rights,” explains Heiko Rischer, principal scientist at VTT Technical Research Centre of Finland. “Growing demand and climate change add to the problems.”
But what if you could produce coffee in a lab using fewer resources and without the need for land? Rischer and his team have done just that using cellular agriculture, an alternative to conventional farming based on biotechnology that “provides alternative routes for commodities that are less dependent on unsustainable practices,” says Rischer.
While the team is still in the process of examining the coffee biomass in detail, the early results are promising. “At this point, we know that caffeine is produced by the cultures and that the flavor profile of the roasted material and the brew is similar to conventional ground coffee,” notes Rischer. “There is huge potential to affect the character of the coffee by adjusting, for example, culture and roasting conditions.”
The process starts by initiating coffee cell cultures, establishing respective cell lines in the laboratory, and transferring them to bioreactors filled with nutrient medium to produce the biomass. The biomass is then roasted, brewed, before finally undergoing analytical and sensory testing. “In terms of smell and taste, our trained sensory panel and analytical examination found the profile of the brew to bear similarity to ordinary coffee,” says Rischer in a VTT press release.
Decades in the making
The team at VTT has been spent decades working with a wide spectrum of plant species to explore their potential with cellular agriculture. In 2018, the team published a paper discussing the study of plant cell cultures from cloudberry, lingonberry, and stoneberry. They discovered that the resulting biomasses not only had a pleasant, fresh, and mild flavor resembling the corresponding fresh fruits, they were also nutritionally valuable. In fact, Rischer explains that almost all nutritional parameters were better in the biomass produced from the plant cell cultures than those in the corresponding fruits.
“Most published reports either focus on utilizing plant cell cultures for extraction of specific ingredients or approach the topic from a rather theoretical point of view without providing reviewable scientific data,” wrote the researchers in the 2018 study published in Food Research International. Now, the team has successfully shown that cellular agriculture can be useful for more than supplements and ingredients … it can be taken from a raw material to a familiar product. “In the coffee case, we wanted to present something tangible that directly speaks to the consumer,” says Rischer.
Still, there are multiple hurdles to overcome before cellular coffee hits your local grocery store. “Mainly it is about dedicated industrial partners supporting the long-term vision,” explains Rischer. “The approval process is clearly mapped out. Product development and regulatory approval require significant investment, and we want to collaborate with dedicated players from the industry to drive the development.”
And, of course, the processes must be economically viable. “Without a competitive price, the approach will not be successful,” says Rischer. “Future piloting will provide exact number to calculate product costs.”
What if you could produce coffee in a lab using fewer resources and without the need for land? Researchers at VTT in Finland have done just that using cellular agriculture.
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