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The Ordering Principle (The British Museum/Oxford University) OXQ editors Denis Noble and Benedict Rattigan consider the ubiquity of dynamic symmetry across different scales, from the Big Bang to the behaviour of cancerous tissue (3'55").
"Dynamic symmetry theory is the idea that systems thrive by staying in a shifting balance between order and chaos, rather than at either extreme. It treats symmetry not as a fixed pattern, but as an ongoing process in which structure and spontaneity continually adjust to one another so that a system remains both stable and able to change."
Dynamic symmetry theory—frequently called 'Edge theory'—is a contemporary scientific framework which holds that life flourishes on the blurred boundary where things are ordered enough to hold their shape, yet fluid enough to change. Rather than viewing the universe as either a rigid machine or a swirl of random events, it proposes that complexity and adaptability emerge from the continual interplay between structure and unpredictability.
The theory has given rise to conferences at the British Museum and Balliol College Oxford, and a Routledge book co-authored by an interdisciplinary team of Oxford academics, The Language of Symmetry, with The Schweitzer Institute (affiliated with Peterhouse, Cambridge) serving as a major research hub. A live-streamed seminar, Edge of Chaos: Exploring Dynamic Symmetry Theory, will take place at the Royal Society in May 2026.
What makes the idea compelling is its apparent universality. The same dynamic equilibrium can be seen in environmental systems, city traffic, musical harmony, economic cycles, and the rhythm of a healthy heartbeat: in each case, systems are most resilient when they balance stability with flexibility, structure with surprise. On this view, dynamic symmetry functions as an organising principle that quietly turns potential chaos into living coherence.
In physics, dynamic symmetry reframes spacetime not as a fixed stage but as something that emerges from interactions among quantum events, with the fabric of reality continually woven from countless micro‑balances between regularity and unpredictability. In biology, it illuminates how DNA conserves reliable patterns while still permitting the variation needed for evolution: a code stable enough to pass on life, yet open enough to novelty.
The same principle informs thinking in ecology and design. Ecologists use edge‑of‑chaos ideas to understand how forests regenerate after disturbance, while planners and architects explore how cities can combine ordered infrastructure with spaces that invite adaptation and improvisation. In everyday experience, the flow of conversation, the atmosphere of a café, or the improvisation of a jazz group all reveal how order and spontaneity can coexist to produce something both coherent and alive.
The Oxford Quarterly Journal of Symmetry & Asymmetry (OXQ) curates research and reflection on Edge theory for a broad readership, through essays, academic papers, videos, and conversations that connect the edge between order and chaos to questions in education, health, culture, and environmental policy. By recasting chaos as a creative partner rather than a threat, Edge theory challenges older ideals of control and invites us to see the most resilient and creative systems—natural and human—as those that learn to live deliberately at that boundary between predictability and possibility.
Click here for a more detailed explanation: What is Dynamic Symmetry?

The OXQ podcast explores a variety of topics through the lens of dynamic symmetry, from human interactions and climate change to the arrow of time, the wave-particle duality, and the treatment of cancer

Our peer-reviewed papers examine the symmetry of order and disorder, and its potential to unify our understanding of diverse phenomena across multiple scales and disciplines
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