Our Mission

Land plants and algae – collectively, plants – power almost all life on Earth, by transforming our sun’s energy into chemical energy through photosynthesis. Understanding how molecular mechanisms support life in these photoautotrophic organisms is the central mission of research at the GMI.

We aim to understand how plants live, grow, reproduce, and adapt to their environments by discovering molecular mechanisms necessary for life. We study diseases, pests, and ecological interactions that affect the health and productivity of plants, both in natural ecosystems and in agriculture. We analyze genetic diversity across populations, discovering how plants adapted to their environments over the past 1.2 billion years, and helping us predict how they may cope in changing environments in the future.

Research at the GMI reveals the secrets behind the wonder of the natural world. Our research is driven by our curiosity about how photosynthetic organisms work; our findings can help conserve natural ecosystems and develop sustainable practices that enable humans to live within the resource limits of our planet.

Conserved rulebook for transposon silencing: How an expanding plant genome reorganizes its defenses
A balancing act: How autophagy buys time during viral infection
How plants grow toward the light
Borrowing plants’ recycling tricks to treat Parkinson’s disease
Polina Foteva receives PhD Fellowship from the Boehringer Ingelheim Fonds
DOC Fellowship Awarded to Zeynep Begüm Şen
Tal Dahan-Meir Receives ESPRIT Grant from the FWF
ÖAW exhibition invites to “Discovering Women Researchers”

Vetrano P, Krall K, ..., Ramundo S (2026) VIA1 is a conserved regulator of thylakoid membrane integrity that acts through VIPP1. PNAS 123(34):e2605816123 preprint bioRxiv:2026.03.26.714412.

Vargova A, Faturova J, Cairo A, et al. (2026) MO25 binds CBL-interacting protein kinases associated with ribonucleoprotein condensates and regulates meiotic exit. bioRxiv:2026.08.19.745790.

Mulvey H, Sakai Y, Jandrasits K, et al. (2026) RHO GTPase of Plants contributes to robust establishment of cellular asymmetry during development from a single cell. bioRxiv:2026.08.18.745417.

Gonzalez-Garcia M, Wu J, Silvestre Vañó M, et al. (2026) A clubroot pathogen PBS3-like effector manipulates hormonal crosstalk to alter root morphology in Arabidopsis and Canola. Mol Plant Microbe Interact [epub].

Aguilar-Cruz A, Flores-Sandoval E, Xu Y, et al. (2026) microRNA-mediated control of cell fate specification and patterning in Marchantia polymorpha. New Phytol [epub].

Vallebueno-Estrada M and Swarts K. (2026) Unified Multi-Caller Ensemble (UME) generates an unbiased maize haplotype for variable coverage whole genome data. Mol Ecol Resour 26(5):e70150. 

Mathur V, Irwin NAT, Galindo LJ, et al. (2026) Molecular and cellular insights into the parasitic infection of bloom-forming marine diatoms by Pirsonia diadema. Nat Microbiol [epub]

Marí-Ordóñez A and Sasaki E. (2026) Genomics and molecular genetics in the post-genome-project era. Curr Opin Plant Biol 93:102938. 

The GMI is part of the Vienna BioCenter, one of the leading international life science research centers worldwide that has established itself as the premier location for life sciences in Central Europe.

viennabiocenter.org