TY - JOUR
T1 - Non-equilibrium assembly of microtubules
T2 - From molecules to autonomous chemical robots
AU - Hess, H.
AU - Ross, Jennifer L.
N1 - Funding Information:
Images of microtubules in LLPCK2 pig epithelial cells for Fig. 1 provided by Patricia Wadsworth, University of Massachusetts Amherst. Kymograph images of dynamic microtubules taken by Dr Megan Bailey under the direction of JLR. HH is supported by the U.S. Army Research Office grant W911NF-13-1-0390 and thanks S. Murata, M. Stojanovic, E. Winfree and H. Palacci for fruitful discussions. JLR is supported by a research grant from the Mathers Foundation, Scialog grant 4308.1 from the Moore Foundation and Research Corporation for Science Advancement, Army Research Office grant DoD ARO MURI 67455-CH-MUR (lead by Thayamanavan), NIH grant R01-GM109909 (lead by D. Sharp), and NSF INSPIRE grant MCB-1344203.
Publisher Copyright:
© The Royal Society of Chemistry 2017.
PY - 2017/9/21
Y1 - 2017/9/21
N2 - Biological systems have evolved to harness non-equilibrium processes from the molecular to the macro scale. It is currently a grand challenge of chemistry, materials science, and engineering to understand and mimic biological systems that have the ability to autonomously sense stimuli, process these inputs, and respond by performing mechanical work. New chemical systems are responding to the challenge and form the basis for future responsive, adaptive, and active materials. In this article, we describe a particular biochemical-biomechanical network based on the microtubule cytoskeletal filament-itself a non-equilibrium chemical system. We trace the non-equilibrium aspects of the system from molecules to networks and describe how the cell uses this system to perform active work in essential processes. Finally, we discuss how microtubule-based engineered systems can serve as testbeds for autonomous chemical robots composed of biological and synthetic components.
AB - Biological systems have evolved to harness non-equilibrium processes from the molecular to the macro scale. It is currently a grand challenge of chemistry, materials science, and engineering to understand and mimic biological systems that have the ability to autonomously sense stimuli, process these inputs, and respond by performing mechanical work. New chemical systems are responding to the challenge and form the basis for future responsive, adaptive, and active materials. In this article, we describe a particular biochemical-biomechanical network based on the microtubule cytoskeletal filament-itself a non-equilibrium chemical system. We trace the non-equilibrium aspects of the system from molecules to networks and describe how the cell uses this system to perform active work in essential processes. Finally, we discuss how microtubule-based engineered systems can serve as testbeds for autonomous chemical robots composed of biological and synthetic components.
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U2 - 10.1039/c7cs00030h
DO - 10.1039/c7cs00030h
M3 - Review article
C2 - 28329028
AN - SCOPUS:85029705689
SN - 0306-0012
VL - 46
SP - 5570
EP - 5587
JO - Chemical Society Reviews
JF - Chemical Society Reviews
IS - 18
ER -