The design of synthetic circuits for controlling molecular-scale processes is an important
goal of synthetic biology, with potential applications in future in vitro and in vivo …

Biochemical circuits made of rationally designed DNA molecules are proofs of concept for
embedding control within complex molecular environments. They hold promise for …

While current experimental demonstrations have been limited to small computational tasks,
DNA strand displacement systems (DSD systems)[25] hold promise for sophisticated …

We propose a theoretical framework that uses a novel DNA strand displacement mechanism
to implement abstract chemical reaction networks (CRNs) on the surface of a DNA …

Information technologies enable programmers and engineers to design and synthesize
systems of startling complexity that nonetheless behave as intended. This mastery of …

We study chemical reaction networks (CRNs) as a kernel language for concurrency models
with semantics based on ordinary differential equations. We investigate the problem of …

With the recent developments in DNA nanotechnology, DNA has been used as the basic
building block for the design of nanostructures, autonomous molecular motors, various …

The emerging fields of genetic engineering, synthetic biology, DNA computing, DNA
nanotechnology, and molecular programming herald the birth of a new information …

Chemical reaction networks are a powerful means of specifying the intended behavior of
synthetic biochemical systems. A high-level formal specification, expressed as a chemical …

Learning and adaptive behaviour are fundamental biological processes. A key goal in the
field of bioengineering is to develop biochemical circuit architectures with the ability to adapt …