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Highly efficient and stable perovskite solar cells are fabricated by introducing a molecular sieve which finely controls the 2D/3D heterointerface reactions.
A catalytic asymmetric intramolecular reaction is developed for the [5+2] cycloaddition of oxidopyrylium ylides, enabled by chiral phosphoric acid organocatalysts, providing access to bridged bicyclic scaffolds.
Single molecule chemistry leveraging scanning probe tip-based atom manipulation is used to create cyclic C6, a previously elusive carbon nanoring, shedding new light on the stability, structure and electronic properties of low-dimensional carbon allotropes.
A two-dimensional metal halide perovskite with spontaneous twisted stacking is synthesized through high-throughput experimentation and counterintuitive chemical design, demonstrating the potential of this approach for regulating metal halide perovskite photophysical properties.
Organosodium reagents have long been considered too reactive for application in organic synthesis. Now, sodium-based nucleophiles can be used with iron catalysis to enable C(sp2) homo-coupling and C(sp2)–C(sp3) cross-coupling reactions.
A platform for the rapid and high-throughput preparation of polymer nanoparticles from polymers in flow is developed, allowing for the scalable synthesis of precision polymer nanoparticles.
One-dimensional quantum magnets hosting correlated π-spins and collective quantum behaviour are synthesized through a combination of elegant precursor design and on-surface synthesis, highlighting the potential of designing π-electron-based quantum spin systems for future quantum technologies.
Homogeneous hydrogenolysis of organohalides using cobalt- and rhodium-catalysis under photocatalytic conditions facilitates the synthesis of deuterium- or tritium-labelled compounds with high selectivity and functional group tolerance.
The electrochemical oxidation of transition metal dichalcogenides generates 2D transition metal oxychalcogenides, offering enhanced stability and activity for electrochemical water oxidation.
Manipulating the crystal plane via a recrystallization strategy confers lithium metal anodes with much improved diffusion kinetics and mechanical properties, achieving high-energy-density batteries.
Direct visualization of a solid-state transformation between two extra-large pore siliceous zeolites reveals a discrete sequence of bond breakage and formation steps at the atomic scale.
Iron photocatalysis, in conjunction with a cooperative radical mechanism, enables the anti-Markovnikov hydrochlorination of unsaturated feedstocks, using light as an energy source.
Monodisperse perovskite nanocrystals are formed by using a diffusion-mediated growth mechanism that controls converted monomer concentration such that premature termination or secondary growth processes are prevented.