Living organisms are replete with rhythmic and oscillatory behavior at all levels, to the extent
that oscillations have been termed as a defining attribute of life. Recent studies of synthetic …

Living organisms often display rhythmic and oscillatory behavior. We investigate here a
challenge in contemporary Systems Chemistry, that is, to construct “bottom-up” molecular …

Internal chemical oscillators (chemical clocks) direct the behavior of numerous biological
systems, and maintenance of a given period and phase among many such oscillators may …

Oscillatory systems regulate many biological processes, including key cellular functions
such as metabolism and cell division, as well as larger-scale processes such as circadian …

Background Self‐sustained oscillations are a ubiquitous and vital phenomenon in living
systems. From primitive single‐cellular bacteria to the most sophisticated organisms …

In biological or abiotic systems, rhythms occur, owing to the coupling between positive and
negative feedback loops in a reaction network. Using the Semenov–Whitesides oscillatory …

Synthetic oscillators have become a research hotspot because of their complexity and
importance. The construction and stable operation of oscillators in large-scale environments …

One of the grand challenges in contemporary systems chemistry research is to mimic life-like
functions using simple synthetic molecular networks. This is particularly true for systems that …

Oscillatory responses are ubiquitous in regulatory networks of living organisms, a fact that
has led to extensive efforts to study and replicate the circuits involved. However, to date …

Periodic length changes, over 20%, were sustained in a pH-responsive gel by associating
the methylene glycol–sulphite OH-producing clock-reaction with variations of the exchange …