Articles

Engineering structurally and functionally complex synthetic cells remains a key challenge. Here DNA condensate synthetic cells combine phase separation and DNA nanostructures to reveal how switchable artificial cytoskeletons assemble in viscoelastic confinements. These cytoskeletons improve the mechanical properties of synthetic cells and enable stable mechano-interfaces with mammalian cells.

This study reports on a closed-loop approach combining multiscale simulations, interpretable machine learning, experiments and techno-economic analysis for systematic plasma catalyst design, showing that alloys from noncritical minerals can potentially replace costly noble metals such as ruthenium for hydrogen production from ammonia decomposition under plasma conditions.

A solid-phase hot-pressing method is introduced, which can rapidly produce highly crystalline covalent organic framework platelets in a convenient, solvent-free manner. Fifteen platelets of various linkage types are produced, with a proof-of-concept demonstration of the resulting high-performing platelet type in an atmospheric water harvesting device.

The lack of reliable coating methods for amorphous zeolitic imidazolate framework (aZIF) materials hinders their development for applications such as photolithography and separation membranes. Supported by computational fluid dynamics modeling, the authors develop a spin-coating technique to deposit aZIF films from dilute precursors and demonstrate their wafer-scale use in advanced lithographic processes.

Net-zero bioplastics are possible when combined with high recycling rates. This study presents a mixed polyester recycling process integrated with monomer separation and purification for both fossil- and bio-based plastics. Techno-economic and life cycle analyses confirm its environmental and commercial advantages, advancing the path toward circular, low-emission polyester plastics.

Uncovering the rules of microtubule network self-organization under confinement is key to understanding how cells build structure in complex environments. This study reveals a tunable boundary-sensing feedback mechanism, wherein pioneer microtubules navigate confined environments and generate nucleation sites for new microtubules, thereby shaping network architecture.

Metal–organic frameworks hold promise as electrocatalysts for water splitting, but their large-scale production remains a challenge. This study reports on a scalable synthetic approach to fabricate large-area metal–organic framework-based electrodes, achieving high catalytic activity and stability in practical alkaline water electrolysis.

A wearable hydrogel-based electrochemical platform is presented for on-demand hydrogen gas therapy, enabling localized gas generation, storage and sustained delivery. This device offers a therapeutic modality for treating ischemia–reperfusion heart disease and skin bedsores, expanding bioelectronics applications in gas-phase chemical delivery.

A pore-modulated pyrolysis reactor that enables catalyst-free and energy-efficient upcycling of plastic waste is demonstrated. The graded-pore structure imposes molecular-weight-dependent transport barriers, establishing a gating effect that enhances product selectivity and yields aviation fuel precursor (C₈–C₁₈) with high efficiency.

This study embeds dynamic flow experiments into self-driving laboratories, intensifying data acquisition during autonomous materials synthesis. Demonstrated with colloidal quantum dots, the developed method substantially boosts sampling density over tenfold and reduces time and reagents.

This study integrates a nitrite-adsorbing ionophore into a copper/carbon nanotube electrified membrane, enabling ultrafast and highly selective ammonia production from low-concentration nitrate in real water sources. This cooperative adsorption approach tunes the local catalyst environment to achieve high activity, selectivity and stability without using precious metals or complex synthesis methods.

Ionic or molecular transport in conventional polymeric membranes often suffers from a trade-off between permeability and selectivity. The authors report on an interfacial polymer cross-linking strategy to produce a robust, permeable and selective 3-µm-thick ultrathin polymeric membrane containing quasi-ordered reticular cross-linking structures.

Efficient hydrogen production is a major societal challenge. Here the authors use operando neutron diffraction to quantitatively support the operating principle of a memory reactor that allows super-equilibrium operation of the water–gas shift reaction, which can also be used for steam methane reforming.

This study presents a diagnostic pen with ferrofluid ink that converts handwriting into sensing signals for Parkinson’s disease (PD) diagnostics. In pilot studies, neural network-assisted analysis of collected handwriting signals accurately distinguished patients with PD, demonstrating the pen’s potential as a low-cost, scalable tool for accessible diagnostics.

Robust, high-throughput processing of two-dimensional materials produced by chemical vapor deposition requires a reliable and scalable technique to transfer the materials to a target substrate. An automated system for transferring chemical-vapor-deposited two-dimensional materials using robotics is developed, demonstrating high production capability with uniformity and repeatability of the transferred materials.

Detecting dilute airborne biomarkers is important in healthcare but is limited by the low sensitivity of current gas sensors. A portable, low-cost device is introduced that uses water condensation to enrich airborne biomarkers into a concentrated liquid, enabling existing liquid sensors to detect biomarkers with high sensitivity and broad accessibility.

Enzymatic recycling is an emerging technology to circularize the ubiquitous polyester poly(ethylene terephthalate). Here the authors evaluate and implement multiple process changes to improve the scalability and viability of this recycling technology. Process modeling demonstrates that these changes could enable cost competitiveness and greatly reduce overall life cycle impacts.

Atom-thin graphene membranes for gas separation face scale-up challenges. The authors introduce scalable and reproducible approaches that simplify the fabrication of atom-thin porous graphene membranes, achieving membrane areas up to 50 cm² with promising performance for point-source carbon capture.

This study reports positively charged membranes with ultrahigh charge densities and tunable water content. These membranes exhibit enhanced ionic conductivity and counter-ion/co-ion selectivity compared with commercially available alternatives, enabling energy-efficient brine concentration via electrodialysis.

This study reports on self-aggregating injectable microcrystals for administering long-acting drug implants via low-profile needles, a key factor in patient adoption. Microcrystal self-aggregation is engineered through a solvent exchange process to form depots with minimal polymer excipient, demonstrating enhanced long-term release of a model contraceptive drug in rodents.