Topological mechanics of knots and tangles
Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and surgery. Despite having been studied for centuries, the subtle interplay between topology and mechanics in elastic knots remains poorly under...
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Published in | Science (American Association for the Advancement of Science) Vol. 367; no. 6473; pp. 71 - 75 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
United States
The American Association for the Advancement of Science
03.01.2020
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Abstract | Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and surgery. Despite having been studied for centuries, the subtle interplay between topology and mechanics in elastic knots remains poorly understood. Here, we combined optomechanical experiments with theory and simulations to analyze knotted fibers that change their color under mechanical deformations. Exploiting an analogy with long-range ferromagnetic spin systems, we identified simple topological counting rules to predict the relative mechanical stability of knots and tangles, in agreement with simulations and experiments for commonly used climbing and sailing bends. Our results highlight the importance of twist and writhe in unknotting processes, providing guidance for the control of systems with complex entanglements. |
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AbstractList | Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and surgery. Despite having been studied for centuries, the subtle interplay between topology and mechanics in elastic knots remains poorly understood. Here, we combined optomechanical experiments with theory and simulations to analyze knotted fibers that change their color under mechanical deformations. Exploiting an analogy with long-range ferromagnetic spin systems, we identified simple topological counting rules to predict the relative mechanical stability of knots and tangles, in agreement with simulations and experiments for commonly used climbing and sailing bends. Our results highlight the importance of twist and writhe in unknotting processes, providing guidance for the control of systems with complex entanglements. It's knot what you know Why is it that some knots seem to hold tight while others readily slip apart? Patil et al. develop a theoretical analysis of the stability of knots and find links between topological parameters (twist charge, crossing numbers, handedness) and mechanical stability. The theory is confirmed using simulations and experiments on color-changing fibers that optically show localized stress differences in different parts of the knot as the two strands are pulled apart. The authors show why some common knots slip easily and untie, whereas others hold tight. Science , this issue p. 71 Simple counting rules predict the relative mechanical stability of knots and tangles. Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and surgery. Despite having been studied for centuries, the subtle interplay between topology and mechanics in elastic knots remains poorly understood. Here, we combined optomechanical experiments with theory and simulations to analyze knotted fibers that change their color under mechanical deformations. Exploiting an analogy with long-range ferromagnetic spin systems, we identified simple topological counting rules to predict the relative mechanical stability of knots and tangles, in agreement with simulations and experiments for commonly used climbing and sailing bends. Our results highlight the importance of twist and writhe in unknotting processes, providing guidance for the control of systems with complex entanglements. It's knot what you knowWhy is it that some knots seem to hold tight while others readily slip apart? Patil et al. develop a theoretical analysis of the stability of knots and find links between topological parameters (twist charge, crossing numbers, handedness) and mechanical stability. The theory is confirmed using simulations and experiments on color-changing fibers that optically show localized stress differences in different parts of the knot as the two strands are pulled apart. The authors show why some common knots slip easily and untie, whereas others hold tight.Science, this issue p. 71Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and surgery. Despite having been studied for centuries, the subtle interplay between topology and mechanics in elastic knots remains poorly understood. Here, we combined optomechanical experiments with theory and simulations to analyze knotted fibers that change their color under mechanical deformations. Exploiting an analogy with long-range ferromagnetic spin systems, we identified simple topological counting rules to predict the relative mechanical stability of knots and tangles, in agreement with simulations and experiments for commonly used climbing and sailing bends. Our results highlight the importance of twist and writhe in unknotting processes, providing guidance for the control of systems with complex entanglements. |
Author | Dunkel, Jörn Patil, Vishal P Kolle, Mathias Sandt, Joseph D |
Author_xml | – sequence: 1 givenname: Vishal P orcidid: 0000-0002-0815-6646 surname: Patil fullname: Patil, Vishal P organization: Department of Mathematics, Massachusetts Institute of Technology, Cambridge, MA 02139, USA – sequence: 2 givenname: Joseph D orcidid: 0000-0002-2671-1105 surname: Sandt fullname: Sandt, Joseph D organization: Department of Mechanical Engineering, Massachusetts Institute of Technology, Cambridge, MA 02139, USA – sequence: 3 givenname: Mathias orcidid: 0000-0001-7395-8824 surname: Kolle fullname: Kolle, Mathias organization: Department of Mechanical Engineering, Massachusetts Institute of Technology, Cambridge, MA 02139, USA – sequence: 4 givenname: Jörn orcidid: 0000-0001-8865-2369 surname: Dunkel fullname: Dunkel, Jörn email: dunkel@mit.edu organization: Department of Mathematics, Massachusetts Institute of Technology, Cambridge, MA 02139, USA. dunkel@mit.edu |
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Copyright | Copyright © 2019 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works. Copyright © 2019 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works |
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Snippet | Knots play a fundamental role in the dynamics of biological and physical systems, from DNA to turbulent plasmas, as well as in climbing, weaving, sailing, and... It's knot what you know Why is it that some knots seem to hold tight while others readily slip apart? Patil et al. develop a theoretical analysis of the... It's knot what you knowWhy is it that some knots seem to hold tight while others readily slip apart? Patil et al. develop a theoretical analysis of the... |
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SubjectTerms | Bends Color Deoxyribonucleic acid DNA Experiments Ferromagnetism Fibers Handedness Knots Mechanics (physics) Optical fibers Plasmas (physics) Sailing Simulation Slip Stability analysis Surgery Theoretical analysis Topology |
Title | Topological mechanics of knots and tangles |
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