This shows why spatial context fundamentally changes how patterns shape tipping points.
π Full paper: www.pnas.org/doi/abs/10.1...
π arXiv version: arxiv.org/abs/2505.08671
π° CASUS Press release: www.casus.science/news-vegetat...
#ComplexSystems #Ecology πΏπΎ (3/3)
Posts by David Pinto Ramos
By adding realistic finite boundaries & environmental anisotropies to theoretical models, plant interactions become non-reciprocal. This triggers nonlinear convective instabilities, making patterned landscapes MORE vulnerable to desertification fronts than uniform vegetation. (2/3) βοΈ
The answer to my previous post? Convective instabilities! πͺοΈ
I'm thrilled to share our new paper in PNAS! Alongside @rmtzgarcia.bsky.social, we challenge the dominant paradigm that spatial self-organization inherently increases ecosystem resilience. (1/3) π§ͺπ
...we completely overlooked one feature hidden in this figure (check the state vs environmental stress $\eta$).
Can you guess what it is? π
During my postdoc, we finally figured it out! Stay tuned, I'll share the answer and our new paper later today. (2/2)
#Ecology #Physics #ComplexSystems
Hi #ScienceSky! π I'm a theoretical physicist & postdoc @ CASUS-HZDR working on complex systems, nonlinear dynamics & spatial ecology.
A while ago, we found that topological defects in vegetation patterns leave an imprint on drylands (www.science.org/doi/10.1126/...). But... (1/2) π§ͺπ¬