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Building artificial cells that mimic the functions of biological cells represents a fundamental challenge. A major bottleneck is the transport of substances across the artificial cell membrane. Now, Nan-Nan Deng and colleagues demonstrate an endocytosis-/exocytosis-like transmembrane transport in a liposome-based system. By utilizing interfacial energy, liposomes can reversibly engulf and excrete oil microdroplets, which can subsequently be exploited as reconfigurable oil-based channels for molecular transport. The cover illustrates the shuttling process of ions and DNA across the oil-based channels.
Comparative process analysis is foundational to chemical engineering. This Editorial discusses comparative language and the role that narrative choices play in communicating these analyses.
Jason Hallett, professor of sustainable chemical technology at Imperial College London, talks to Nature Chemical Engineering about technology translation for spinout companies and the use of ionic liquids in sustainable chemical process design.
Engineering synthetic cells faces the challenge of transferring biomolecules, such as nucleic acids and proteins, through simple lipid bilayers. Now, a study reveals how energy-dissipating oil droplets can create reconfigurable passageways shuttling biomolecules across liposomal compartments.
Controllable and reversible transmembrane transport is a fundamental challenge in building synthetic cells. Here, interfacial energy-mediated bulk transport across artificial cell membranes is developed to mimic a rudimentary form of endocytosis- and exocytosis-like behaviors, facilitating the shuttling of biomolecules such as enzyme substrates, ions and nucleic acids.
The characterization of light irradiation for intensified flow reactors extends beyond the determination of photon fluxes, requiring the precise determination of optical path lengths. Here the authors introduce a systematic workflow that integrates radiometry, ray-tracing simulations and actinometry to obtain these system parameters.
Switching between liquid capture and release is important in handling various liquids. Here the authors present connected polyhedral frames that form a network of units that capture or release liquid that is readily switchable locally, dynamically and reversibly, thus functioning as a versatile fluidic processor.
Efficiently separating high-value targets with small structural differences in liquids is important to the chemical industry. Here the authors develop a metal–organic framework-based membrane with engineered topologic defects for accurate and prolonged sieving of species with molecular weights below 350 g mol−1.