Molecular differentiation by supramolecular sensors is typically achieved through sensor
arrays, relying on the pattern recognition responses of large panels of isolated sensing …

Differential sensing, which discriminates analytes via pattern recognition by sensor arrays,
plays an important role in our understanding of many chemical and biological systems …

Biomolecular recognition has long been an important theme in artificial sensing
technologies. A current limitation of protein-and nucleic acid-based recognition, however, is …

Chemical sensors play an important role in our understanding of chemical and biological
systems, providing sensitive and rapid detection of a variety of substrates. Array-based …

Supramolecular materials, which rely on dynamic non-covalent interactions, present a
promising approach to advance the capabilities of currently available biosensors. The weak …

The ability of proteins to interconvert unrelated biochemical inputs and outputs underlays
most energy and information processing in biology. A common conversion mechanism …

Adaptation transcends scale in both natural and artificial systems, but delineating the
causative factors of this phenomenon requires urgent clarification. Herein, we unravel the …

Sensors provide powerful tools and technologies to peer into the natural world, enabling
researchers to discover and decipher new molecular phenomena through the design …

Chemical sensing is a strategic field of science and technology ultimately aiming at
improving the quality of our lives and the sustainability of our Planet. Sensors bear a direct …

Chemosensing in nature relies on biomolecular switches, biomolecules that undergo
binding-induced changes in conformation or oligomerization to transduce chemical …