Erratum: Acoustofluidic Synthesis of Particulate Nanomaterials.

[This corrects the article DOI: 10.1002/advs.201900913.

Correction: Three-dimensional numerical simulation and experimental investigation of boundary-driven streaming in surface acoustic wave microfluidics.

Correction for 'Three-dimensional numerical simulation and experimental investigation of boundary-driven streaming in surface acoustic wave microfluidics' by Chuyi Chen et al., Lab Chip, 2018, 18, 3645-3654, DOI: .

Acoustofluidic Synthesis of Particulate Nanomaterials.

Synthesis of nanoparticles and particulate nanomaterials with tailored properties is a central step toward many applications ranging from energy conversion and imaging/display to biosensing and nanomedicine. While existing microfluidics-based synthesis methods offer precise control over the synthesis process, most of them rely on passive, partial mixing of reagents, which limits their applicability and potentially, adversely alter the properties of synthesized products. Here, an acoustofluidic (i.

Three-dimensional numerical simulation and experimental investigation of boundary-driven streaming in surface acoustic wave microfluidics.

Acoustic streaming has been widely used in microfluidics to manipulate various micro-/nano-objects. In this work, acoustic streaming activated by interdigital transducers (IDT) immersed in highly viscous oil is studied numerically and experimentally. In particular, we developed a modeling strategy termed the "slip velocity method" that enables a 3D simulation of surface acoustic wave microfluidics in a large domain (4 × 4 × 2 mm) and at a high frequency (23.

Digital acoustofluidics enables contactless and programmable liquid handling.

For decades, scientists have pursued the goal of performing automated reactions in a compact fluid processor with minimal human intervention. Most advanced fluidic handling technologies (e.g.