Complexity & Emergence
60 articles
Beyond Entropy: How Scientists Are Measuring Complexity in Living Systems
New work is turning information theory into a practical language for distinguishing living organization from mere biological noise.
Life Runs on Dissipation—and Scientists Are Learning to Measure It
From growing cells to molecular motors, biology turns energy gradients into organized activity without ever reaching equilibrium.
Santa Fe and the Science of Emergence
At a small New Mexico institute, scientists began asking how simple rules could generate the intricate order of life, economies, ecosystems, and minds.
The Systems Idea Behind Today’s Science of Connection
As climate, health, technology, and ecosystems collide, Ludwig von Bertalanffy’s decades-old framework is becoming newly practical.
Francis Bacon Did Not Invent Modern Science—But His Method Still Shapes It
Four centuries after Bacon, scientists are revisiting the discipline of testing ideas against stubborn, collective evidence.
On the Edge: Self‑Organized Criticality, Neural Avalanches, and Cortical Computation
A growing body of experiments and models places cortical networks near a critical tipping point — a regime that may reconcile sensitivity, stability and flexible computation.
The Metrics of Life: How Information Theory Now Quantifies Biological Complexity
A convergence of estimators, multi-scale decompositions and causal information measures is turning abstract information metrics into practical probes of living systems.
The Coherence Principle in Complex Systems: Why Alignment Outperforms Raw Optimization
Across physics, biology and engineered networks, coherent alignment of interacting parts produces more robust, generalizable optima than brute-force local optimization.
Ludwig von Bertalanffy and General Systems Theory: Why Everything Is Connected
A mid‑twentieth‑century call to see relations before parts — the intellectual leap that made interdisciplinarity scientific
When Networks Break Together: New Theory Exposes Fragility of Interdependent Infrastructures
Recent advances in network-resilience theory reveal why coupling modern infrastructures can turn local faults into systemic collapse — and point to concrete architectures that blunt the next cascade.
Neural avalanches at the edge: new clarity in the criticality debate
Converging experiments and theory suggest cortex operates near — but not necessarily exactly at — a critical point, with big implications for computation.
Quantum Coherence Channels Enable Robust Biological Information Flow
Recent experiments and theoretical work argue that transient quantum coherence and regulated decoherence operate as information channels in photosynthesis, magnetoreception and other biological systems.