Eliza Loo

@elizaloopi.bsky.social

Nutrient exchange between plants and microbes :: Group leader @healthycrops.bsky.social, @ceplas.bsky.social, @hhu.bsky.social

What is the impact of phage biocontrol on plant immune responses and bacterial virulence? Very happy that this is out @cp-cellreports.bsky.social! @mibinet.bsky.social, @dfg.de, @fz-juelich.de, @hhu.de, @spp2330.bsky.social

Borjana Arsova@borjana-a.bsky.social · 2mo ago

#Bacteriophages help sustainable plant protection ✅#Phages restore 🌱 growth during 🦠 infection. ✅🧬 shows ⬇️🌱immunity & ⬇️bacterial virulence. #Biocontroll #PlantSci 🧪 #PMI @frunzkelab.bsky.social @guidogrossmann.bsky.social @mibinet.bsky.social @fz-juelich.de www.cell.com/cell-reports...

What if plant immunity doesn’t stop bacteria from arriving - but from staying? Excited to share our new Dangl Lab paper (doi.org/10.1073/pnas.2535583123), asking a fundamental co-evolutionary question: which flagellar function is targeted by plant immunity? #Coevolution #Plant-Microbiome #PNAS 🧵1/8

PNAS

Proceedings of the National Academy of Sciences (PNAS), a peer reviewed journal of the National Academy of Sciences (NAS) - an authoritative source of high-impact, original research that broadly spans...

doi.org

Very excited to see our @nikogeldner.bsky.social lab x Feng Zhou lab work featured on the cover of Science! (1/5) We reveal how root architecture and nutrient leakage shape spatial patterns of microbial colonization, moving beyond traditional models of uniform exudation.

Science Magazine@science.org · 11mo ago

Using precise spatial and temporal analysis, researchers in Science provide insight into how bacteria around the root interact both with the plant and with each other. Learn more in this week's issue: https://scim.ag/3WgNajk

A confocal microscopy image shows root-colonizing bacteria clustering around an emerging lateral root, where localized glutamine leakage induces spatially confined reporter activity.

Deciphering microbial spatial organization: insights from synthetic and engineered communities | ISME Communications | Oxford Academic

Deciphering microbial spatial organization: insights from synthetic and engineered communities

Microbial communities are frequently organized into complex spatial structures, shaped by intrinsic cellular traits, interactions between community members, initial growth condition or environmental factors. Under- standing the mechanisms that drive these spatial patterns is essential for uncovering fundamental principles of microbial ecology and for developing applications. Using genetic engineering and synthetic microbial communities allows us to decipher how specific parameters influence spatial organization. In this review, we highlight recent studies that leverage synthetic microbial communities to deepen our understanding of microbial spatial ecology. We begin by exploring how initial conditions, such as cell density and relative species abundance, influence spatial organization. We then focus on studies that examine the role of individ- ual microbial traits, such as cell shape and motility. Next, we discuss the impact of contact-dependent and long-range interactions, including metabolite exchange and toxin release. Furthermore, we highlight the in- fluence of environmental factors on spatial dynamics. Finally, we address the current limitations of synthetic approaches and propose future directions to bridge the gap between engineered and natural systems.

academic.oup.com