Danila group

Danila Group – Plant cell structure and intercellular communication

Our group studies plasmodesmata to answer important plant science questions related to development, cellular transport, root biology, signalling and evolution.

About

My group’s long-term goal is to make crops more climate-resilient and disease-resistant. Plasmodesmata (PDs) are the conduits connecting the cytoplasm of plant cells and are essential for intercellular transport in plants. The vital role PDs play in plant growth and development encompasses different plant tissues. In roots, PDs primarily contribute to water and solute transport. In leaves, PDs are fundamental for metabolite exchange and sugar unloading during photosynthesis. In stems, the presence of PDs is crucial for successful grafting as they facilitate exchange of genetic material between the rootstock and the scion. PDs also play important roles in resistance to pathogen infection, contribute to the plant’s ability to deter predators and respond to environmental stimuli. Therefore, understanding the genetic mechanisms underlying PD development will provide new avenues to improve crops.

Projects

A proteomics approach to understand the role of plasmodesmata in plant-pathogen interaction.

Theme

Membrane transporters and channels, Plant-microbe interactions

Student intake

Open for Summer scholar, Honours students

Status

Current

People

A combined bioimaging analysis and complementary multi-'omics approach to map the genetic mechanism underlying plasmodesmata formation and regulation using fluorescent protein tagged-plasmodesmata lines of C3 and C4 crops.

Theme

Membrane transporters and channels, Photosynthesis and plant energy biology, Plant genetics and gene regulation

Student intake

Open for Summer scholar, Honours, Master, PhD students

Status

Current

People

Members

Group Leader

Technical Assistant

PhD Student

Special Project Student

News

An impressive body of evidence published this week reveals the answer to a mystery that has puzzled plant scientists for more than 30 years: the role of the molecule suberin in the leaves of some of our most productive crops.

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A team of scientists have measured the relative importance of the different obstacles that carbon dioxide (CO2) encounters in its voyage from the atmosphere to the interior of plant cells. This research leading method provides much needed information that will help to increase the yield of important food crops.

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Scientists at the Australian Research Council (ARC) ARC Centre of Excellence for Translational Photosynthesis (CoETP) have found that some plants have ten times more communication channels inside their leaves than other plants, which they think is a crucial factor in determining photosynthetic efficiency.

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