Research

We investigate how to improve crop production and crop quality through management, breeding and biotechnology. We seek ways to reduce environmental restrictions on crop growth and to develop sustainable management practices that will guarantee crop productivity in a changing climate.
Strategies for sustainable caraway production

The cultivated area on caraway in Finland is now higher than that of potatoes and broad beans and has proven to be one of the most profitable crops. Its seeds are rich on carvone and limonene, two volatile compounds of great importance for the food and pharmaceutical industries.

The main purpose of the project is to improve and guarantee high seed oil quality, while improving sustainability of the cropping system. Our research seeks to identify key environmental factors, companion crops and micronutrients, and to select best cultivation areas and management practices.

This work is carried out partly in collaboration with

Osmolytes in hydroponic leafy vegetable production

Osmolytes are accumulated in plants as a response to for example environmental stresses. The role of osmolytes in plants has been studied extensively, yet there remain plenty of gaps in the knowledge regarding for example the mode of action. We investigate physiological and biochemical responses in leafy vegetables to root-applied osmolytes. The aim is to develop a new production strategy applying osmolytes in fertigation solutions to improve the commercial quality of leafy vegetables and utilize novel imaging technology for quality control. This research project is conducted together with the Deparment of Food and Nutrition, , and Luke,

Three-crop mixtures to increase sustainability

Crop diversity is the cornerstone of food security, enabling continuous adaptation to climate change while providing systemic resilience against abiotic and biotic disturbances. Mixed cropping can alleviate current and future concerns in plant production by elevating soil quality, and potentially reducing the occurrence of pest and pathogen infestations as well as greenhouse gas emissions.

This initiative remains in progress through our partnership with

Healthy and sustainable Finnish sweet potato

Sweet potato is very healthy vegetable with numerous uses. In western countries mainly the roots are used, but the leaves are also delicious. In Finland, sweet potato has mainly been an interest of home gardeners, yet it could be a good addition among the limited options of crops grown in the field. It does not require high inputs, so it should fit nicely also into organic production. We investigate sweet potato cultivation methods, cultivar differences, and the nutritive traits of sweet potato leaves and storage roots together with . We use cultivars differing in their color of storage root skin and flesh (rose, yellow, white, orange and purple).

GreeNTrans

aims to transition synthetic nitrogen fertilizers production to short-chain, reduced greenhouse gas, and circular economy-based technology. Such a goal will be achieved by adapting plants of the legume family to grow in hydroponic systems with leafy vegetables. Novel approaches proposed by the project will provide a better understanding of the nitrogen cycle in plants, and the estimation of BFN in plants and hydroponic solutions will help to determine the optimal requirements for growing plants and contribute to safer food to ensure higher product quality, consistent yields for farmers, and safer food for consumers. This is a project collaborating with international partners , and internal partners and

 

Navigating the Route to Sustainable Water-Food Futures

This project aims to identify solutions that reduce water overuse and pollution while ensuring food security and the economic viability of food production. We work together with several other group representing different disciplines. In our work package we study how tailored transition from rainfed to nature- and technology-based water management systems can be used to safeguard profitable, sustainable, resilient, and regenerative primary production in the pressure of global changes and challenges.

Regenerative Agricultural Systems for Climate Resilience in Agroecological Gradient in East Africa

REACT will fill the knowledge gaps in the interconnections between climate, and agroecological and socioeconomic environments in heterogeneous smallholder agricultural systems in different agroecological zones in East Africa. We aim to develop accurate estimates of key agrometeorological variables using time-series and validated models measured with agroecological zone-specific parametrization and develop regenerative systems for agriculture with local stakeholders. Our high-class research stem from previous collaborative multidisciplinary work and innovative field experiments, which have generated new knowledge of water, soil carbon and crop growth dynamics.

Completed Research Projects
Forage maize cultivation

Forage maize has been grown in Finland for several decades, even though its cultivation area was very limited for long. During the past few years, interest in forage maize has increased among farmers. However, the Finnish climate sets several different challenges for forage maize production as well as its quality. One of the challenges is related to the dry matter content of the harvested crop which affects the preservability of the yield.

We aim to develop forage maize production together with animal scientists through means of pre- and post-harvest crop management. We also investigate the environmental impact of forage maize production in Finland.

Website in Finnish:

Diversifying organic crop production to increase resilience

DIVERSILIENCE aims to improve the productivity and resilience of organic crop production by better utilization of crop diversity, through research work

performed in countries of Northern Europe (Denmark, Finland, Norway) and Southern Europe (Bulgaria, Italy, Romania, Slovenia). It will study and exploit the following levels of genetic diversity: (i) diversity within species, by germplasm improvement aimed to increase adaptation to organic farming and the changing climate as well as tolerance to challenging abiotic and biotic stresses; (ii) intra-species diversity, by developing evolutionary populations and variety mixtures of inbred crops and testing their advantage over genetically uniform crops in terms of weed, pest and disease control and increased resilience and yield stability; and (iii) inter-specific diversity, by developing a range of grain and forage legume-based mixtures and testing their advantage over crop pure stands.