Dünnebacke Torsten, Niemeyer Niklas, Baumert Sebastian, Hochstädt Sebastian, Borsdorf Lorenz, Hansen Michael Ryan, Neugebauer Johannes, Fernández Gustavo
Universität Münster, Organisch-Chemisches Institut, Corrensstraße 36, 48149, Münster, Germany.
Universität Münster, Center for Multiscale Theory and Computation, Corrensstraße 36, 48149, Münster, Germany.
Nat Commun. 2024 Jul 7;15(1):5695. doi: 10.1038/s41467-024-50029-1.
Adaptation transcends scale in both natural and artificial systems, but delineating the causative factors of this phenomenon requires urgent clarification. Herein, we unravel the molecular requirements for adaptation and establish a link to rationalize adaptive behavior on a self-assembled level. These concepts are established by analyzing a model compound exhibiting both light- and pH-responsive units, which enable the combined or independent application of different stimuli. On a molecular level, adaptation arises from coupled stimuli, as the final outcome of the system depends on their sequence of application. However, in a self-assembled state, a single stimulus suffices to induce adaptation as a result of collective molecular behavior and the reversibility of non-covalent interactions. Our findings go beyond state-of-the-art (multi)stimuli-responsive systems and allow us to draw up design guidelines for adaptive behavior both at the molecular and supramolecular levels, which are fundamental criteria for the realization of intelligent matter.
适应在自然系统和人工系统中都超越了尺度,但明确这一现象的成因因素亟待厘清。在此,我们揭示了适应的分子要求,并建立了一种联系,以便在自组装层面上使适应性行为合理化。这些概念是通过分析一种同时具有光响应和pH响应单元的模型化合物而确立的,这些单元能够联合或独立应用不同的刺激。在分子层面上,适应源于耦合刺激,因为系统的最终结果取决于刺激的施加顺序。然而,在自组装状态下,由于集体分子行为和非共价相互作用的可逆性,单一刺激就足以诱导适应。我们的发现超越了现有技术的(多)刺激响应系统,并使我们能够在分子和超分子层面上制定适应性行为的设计指南,这是实现智能物质的基本标准。