Photos from three good examples of utilisation

Good examples of utilisation

​The research at the Department of Biology and Biological Engineering makes a difference. Read about good examples where our research has contributed to an impact on society.
 

Enzyme discovery and utilisation in South East Asia  ​

Photo of collection of microorganisms in the rain forest in VietnamA long-term collaboration between researchers at the Division of Industrial Biotechnology and the Food Industries Research Institute, FIRI, in Hanoi has resulted in the discovery, characterization and use of local ​microorganisms for large-scale enzyme production in Vietnam. 

These locally produced enzymes, which are produced at a low cost, are used, for example, in bioethanol production or to increase the nutritional value of animal feed, while they also reduce the environmental impa​ct.

Read more about the research project: 

Biodiversity in Vietnam leads the industry forward​​



Biopetrolia AB – fatty acids and derived products via yeast biotechnology

Photo of the management of BiopetroliaBaker’s yeast, Saccharomyces cerevisiae, is not only used for producing bread, wine and beer. Genetically engineered yeast has been used for the industrial production of bioethanol and pharmaceuticals such as insulin. Modern biotechnology provides a big opportunity to move from a petrol-based to a bio-based industry, employing micr​obial processes. 

Within this project researchers from the Division of Systems and Synthetic Biology were able to specifically develop yeast cell factories to produce fatty acids. This allows for the production of a wide range of products including biofuels, nutraceuticals, cosmetics, fragrances and pharmaceuticals. At the same time this technology provides a sustainable and easily scalable way of production compared to current production routes. 

This research resulted in various high impact publications, patents and the founding of the start-up company Biopetrolia AB. Several industrial collaboration projects were successfully conducted ranging from fuel, food oil to bioethanol production.

Read more about Biopetrolia:
 

Nutritious foods for young children in low income countries

Photo of power flourMalnutrition is very common in young children in many low-income countries and the main reason is that the diet does not provide enough of energy, protein and micronutrients. Many diseases contribute to this condition, especially diarrhea caused by the fact that the food for young children is often contaminated with diarrhea bacteria. Although cereal porridges have a high nutritional and energy content, it is difficult for young children to eat enough amounts of a thick porridge to meet their nutritional needs.

Researchers at the Division of Food and Nutrition Science, led by Ulf Svanberg, Professor Emeritus, have developed a technique where you add a small amount of germinated cereal flour, power flour, to a thick porridge that will turn into a liquid nutritious gruel within minutes – much easier to consume for a young child. 

The power flour was found to have the same effect when preparing a lactic acid fermented cereal gruel, togwa, which also prevented the growth of diarrhoea bacteria and thus made the fermented gruel hygienically safe. 

The technique was introduced and demonstrated at a large scale in nutrition programmes in Tanzania with support from WHO and UNICEF. An evaluation of the program showed that the number of malnourished children significantly decreased and that mortality among children also decreased.

Read more about the project:


Multi-Feed operation of lignocellulose fermentation

Photo of forest, logs and sawdustOne of the aims of the Multi-Feed project was to identify opportunities for development of the national research facility Biorefinery Demo Plant (BDP) in order to optimise and develop the process for the conversion of lignocellulose, biomass from plants and trees, to fuels, chemicals and materials. 

The project resulted in record-level final ethanol concentration, but also to knowledge transfer from academia to industry, investments in equipment for handling lignocellulose slurries at very high dry matter contents, additional research grants and several scientific publications. 

The project was run by researchers at the Division of Industrial Biotechnology in collaboration with RISE under the leadership of Carl Johan Franzén.

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Hidden in grains

Processed crops, such as polished rice and refined flour, contain lower levels of micronutrients than unrefined grains. One third of the world's population suffers from a lack of micronutrients such as iron and zinc. In unrefined grains the minerals have low availability for uptake in the human gut due to the presence of inhibiting factors (phytate). 

Based on research, led by Professor Ann-Sofie Sandberg at the Division of Food and Nutrition Science, the company Hidden in Grains has developed a hydrothermal process technology that increases the availability of minerals from whole grains and legumes. Through this, Hidden in Grains has been able to meet the demands of the market: products that taste good, are healthy and easy to use and that are available at a reasonable price. 

The company works internationally as well as nationally to mobilise farmers and small-scale processors to increase the number of available products and to spread knowledge among consumers in order to increase the demand for tasty and nutritious whole grain products.

​More information:

Page manager Published: Thu 03 Dec 2020.