4.8 Article

Cell Sheet-Like Soft Nanoreactor Arrays

Journal

ADVANCED MATERIALS
Volume 34, Issue 5, Pages -

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adma.202105630

Keywords

interior structures; nanocrystals; nanoreactors; polystyrene-encased nanoframes; self-assembly

Funding

  1. H2020-MSCA individual fellowship S-OMMs
  2. Australian Research Council [DP200100624, DE200101120]
  3. Australian Research Council [DP200100624, DE200101120] Funding Source: Australian Research Council

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Tissues consist of closely packed cell arrays, resembling sheet-like biosynthesis plants. Soft polystyrene-encased nanoframe reactor arrays can synthesize novel nanocrystals in a unique confined environment, enabling directional inward crystallization.
Tissues, which consist of groups of closely packed cell arrays, are essentially sheet-like biosynthesis plants. In tissues, individual cells are discrete microreactors working under highly viscous and confined environments. Herein, soft polystyrene-encased nanoframe (PEN) reactor arrays, as analogous nanoscale sheet-like chemosynthesis plants, for the controlled synthesis of novel nanocrystals, are reported. Although the soft polystyrene (PS) is only 3 nm thick, it is elastic, robust, and permeable to aqueous solutes, while significantly slowing down their diffusion. PEN-associated palladium (Pd) crystallization follows a diffusion-controlled zero-order kinetics rather than a reaction-controlled first-order kinetics in bulk solution. Each individual PEN reactor has a volume in the zeptoliter range, which offers a unique confined environment, enabling a directional inward crystallization, in contrast to the conventional outward nucleation/growth that occurs in an unconfined bulk solution. This strategy makes it possible to generate a set of mono-, bi-, and trimetallic, and even semiconductor nanocrystals with tunable interior structures, which are difficult to achieve with normal systems based on bulk solutions.

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