Biomimetic Synchronized Motion of Two Interacting Macrocycles in [3]Rotaxane‐Based Molecular Shuttles

Noncovalent interactions between all the neighboring components in biomolecular machines are responsible for their synchronized motion and thus complex functions. This strategy has rarely been used in multicomponent molecular machines. Here, we report four [3]rotaxane‐based molecular shuttles. Nonco...

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Published inAngewandte Chemie International Edition Vol. 58; no. 42; pp. 15136 - 15141
Main Authors Zheng, Li‐Shuo, Cui, Jie‐Shun, Jiang, Wei
Format Journal Article
LanguageEnglish
Published WEINHEIM Wiley 14.10.2019
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Abstract Noncovalent interactions between all the neighboring components in biomolecular machines are responsible for their synchronized motion and thus complex functions. This strategy has rarely been used in multicomponent molecular machines. Here, we report four [3]rotaxane‐based molecular shuttles. Noncovalent interactions among the three components (two interacting macrocycles and one axle) not only cause a “systems‐level” effect on the relative positions of the two macrocycles along the axle, but also result in a synchronized motion of the two macrocycles when adding partial amount of stimuli. Moreover, the intermediate state with one shuttled macrocycle even exist predominantly in the solution during the titration of stimuli, which is theoretically unexpected for the [3]rotaxane with two non‐interacting rings. This biomimetic strategy may provide a method for constructing highly complex molecular machines. Molecular machines: Four [3]rotaxane‐based molecular shuttles with two interacting macrocycles have been synthesized. The interactions among the three components (two macrocycles and one axle) were shown to not only affect the relative positions of the macrocycles along the axles with different spacer lengths, but also cause a synchronized motion of the two macrocycles when adding stimuli.
AbstractList Noncovalent interactions between all the neighboring components in biomolecular machines are responsible for their synchronized motion and thus complex functions. This strategy has rarely been used in multicomponent molecular machines. Here, we report four [3]rotaxane‐based molecular shuttles. Noncovalent interactions among the three components (two interacting macrocycles and one axle) not only cause a “systems‐level” effect on the relative positions of the two macrocycles along the axle, but also result in a synchronized motion of the two macrocycles when adding partial amount of stimuli. Moreover, the intermediate state with one shuttled macrocycle even exist predominantly in the solution during the titration of stimuli, which is theoretically unexpected for the [3]rotaxane with two non‐interacting rings. This biomimetic strategy may provide a method for constructing highly complex molecular machines.
Noncovalent interactions between all the neighboring components in biomolecular machines are responsible for their synchronized motion and thus complex functions. This strategy has rarely been used in multicomponent molecular machines. Here, we report four [3]rotaxane‐based molecular shuttles. Noncovalent interactions among the three components (two interacting macrocycles and one axle) not only cause a “systems‐level” effect on the relative positions of the two macrocycles along the axle, but also result in a synchronized motion of the two macrocycles when adding partial amount of stimuli. Moreover, the intermediate state with one shuttled macrocycle even exist predominantly in the solution during the titration of stimuli, which is theoretically unexpected for the [3]rotaxane with two non‐interacting rings. This biomimetic strategy may provide a method for constructing highly complex molecular machines. Molecular machines: Four [3]rotaxane‐based molecular shuttles with two interacting macrocycles have been synthesized. The interactions among the three components (two macrocycles and one axle) were shown to not only affect the relative positions of the macrocycles along the axles with different spacer lengths, but also cause a synchronized motion of the two macrocycles when adding stimuli.
Author Zheng, Li‐Shuo
Jiang, Wei
Cui, Jie‐Shun
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Issue 42
Keywords self-assembly
MACHINES
cooperativity
rotaxanes
RECOGNITION
molecular machines
ROTAXANE
MOTORS
supramolecular chemistry
Language English
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Dedicated to the 100th anniversary of Nankai University
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Snippet Noncovalent interactions between all the neighboring components in biomolecular machines are responsible for their synchronized motion and thus complex...
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SubjectTerms Biomimetics
Chemical bonds
Chemistry
Chemistry, Multidisciplinary
cooperativity
Molecular machines
Physical Sciences
rotaxanes
Science & Technology
self-assembly
Shafts (machine elements)
Spacecraft components
Stimuli
supramolecular chemistry
Titration
Title Biomimetic Synchronized Motion of Two Interacting Macrocycles in [3]Rotaxane‐Based Molecular Shuttles
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fanie.201910318
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https://www.ncbi.nlm.nih.gov/pubmed/31436864
https://www.proquest.com/docview/2301398265
Volume 58
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