腦瞳憫

12 May 2025

The future will bring many challenges for the crops we grow, not least due to climate change. Researchers at 腦瞳憫 have investigated the potential importance of wild-growing caraway and why it should be preserved.

Caraway
Caraway
Caraway (Carum carvi) is one of the world’s most important spices and has been cultivated since the Middle Ages. Finland currently accounts for 20–30% of the global caraway market, so it’s a significant cultivated plant in the Nordic region.
"The study was part of a Nordic collaborative project,” says Jenny Hagenblad, Senior Associate Professor at Linköping University.

During domestication and plant breeding, much genetic diversity is lost, whereas the wild ancestors and relatives of crops tend to have significantly higher genetic variation. It's important that these genetic resources are not lost. Genes from wild-growing caraway may prove valuable for future caraway breeding. Since caraway has grown wild in the Nordic region for thousands of years, it has adapted to local conditions such as the unique light environment of long, cool, bright summers.

“By crossing in genes for these traits into high-yielding cultivated caraway varieties from more southern latitudes, we may make them better suited for cultivation in the Nordic region. Often we don’t know in advance which genes from wild caraway will be useful, only that the more genetic diversity exists, the higher the likelihood that something will be beneficial to humans,” says Jenny Hagenblad.

Researchers from five countries mapped 16 populations and found a clear east–west genetic pattern, shaped by both Ice Age dispersal routes and human influence.

“We mapped the genetic variation in 16 Nordic populations of waraway and found that the genetic diversity followed an east–west gradient, and that in some cases humans contributed to the introduction of what is now wild-growing cumin. Based on the genetic analyses, we have identified several populations that should be prioritized for conservation efforts.”
Graphics

Dynamic implants for precision medicine - Connecting Device Physics with Biophysic

By integrating device engineering with biophysical insights, this project drives the development of smarter drug delivery systems with refined dose adjustments to push the boundaries of precision in preclinical medical sciences.

Virtual Worlds: digital technologies in climate and biodiversity governance

Virtual Worlds explores the role of digital technologies in managing climate change and biodiversity loss. The program reviews how technology can improve environmental governance and include local knowledge for sustainable development.

Crop evolution - Hagenblad Group

Humans rely on crop plants for food, medicine, clothing and many other functions. The Hagenblad lab studies how crop plants have spread across the world and how they have adapted to different climates and cultivation methods.

Latest news from LiU

Superdatorn Berzelius.

Stronger Berzelius ready for the research of the future

The latest upgrading of the supercomputer Berzelius at LiU has now been completed. Its doubled capacity enables researchers across Sweden to tackle current and future challenges in areas such as materials science, bioinformatics and machine learning.

Gillian Einstein at her honorary doctorate lecture

Science without borders Gillian Einstein honored at LiU

It is such an honor, and I am truly proud to have been appointed honorary doctor. Thats what Professor Gillian Einstein said when she visited Campus US for her honorary doctorate lecture and a couple of intense days at 腦瞳憫.

Theodor Westny demonstrating a simulation of self-driving cars.

From simulation to reality with autonomous cars

If 腦瞳憫 is to be a leading player in self-driving vehicles, we need to gear up. This is according to Theodor Westny at the Division of Vehicular Systems who is the initiator of a new research and teaching platform.