Impact Driven Liquid Encapsulation: Promises, Development, and Future Prospects

Abstract Encapsulation creates a protective outer layer(s) around a core cargo, which safeguards the cargo in aggressive surroundings. It also serves as a platform to impart various desired characteristics to the core cargo, including shell‐functionalization and targeted release characteristics. Encapsulation can be broadly classified into three categories: physical, chemical, and physicochemical techniques. This perspective focuses on an emerging class of impact‐driven physical encapsulation techniques, which offers several lucrative prospects compared to conventional encapsulation methods, including straightforward execution and ultrafast yet controlled wrapping. Two different categories of impact‐driven methods for achieving stable, ultrafast encapsulation of various core liquid analytes with one or more wrapping layers are discussed, namely, elastocapillary wrapping with ultrathin sheet(s) and a liquid–liquid encapsulation framework, where thin liquid film(s) are used to wrap liquid analytes, with an emphasis on the latter. The promising prospects of both approaches are discussed, recent developments are outlined, and areas of future research that can lead to a truly versatile and comprehensive encapsulation platform applicable to a broad range of practical applications are highlighted.

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Institutions

Publication Details

Journal
Advanced Materials Interfaces
Published
2024-12-12
DOI
https://doi.org/10.1002/admi.202400402
Citations
6
Primary Topic
Electrohydrodynamics and Fluid Dynamics
Type
article
Field-Weighted Citation Impact
1.25

Funders

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article

Impact Driven Liquid Encapsulation: Promises, Development, and Future Prospects

Sirshendu Misra, Sushanta Kumar Mitra
6 citations
Advanced Materials Interfaces
Electrohydrodynamics and Fluid Dynamics
1.25
article

Impact Driven Liquid Encapsulation: Promises, Development, and Future Prospects

Sirshendu Misra, Sushanta Kumar Mitra
article en
6 citations

Abstract

Abstract Encapsulation creates a protective outer layer(s) around a core cargo, which safeguards the cargo in aggressive surroundings. It also serves as a platform to impart various desired characteristics to the core cargo, including shell‐functionalization and targeted release characteristics. Encapsulation can be broadly classified into three categories: physical, chemical, and physicochemical techniques. This perspective focuses on an emerging class of impact‐driven physical encapsulation techniques, which offers several lucrative prospects compared to conventional encapsulation methods, including straightforward execution and ultrafast yet controlled wrapping. Two different categories of impact‐driven methods for achieving stable, ultrafast encapsulation of various core liquid analytes with one or more wrapping layers are discussed, namely, elastocapillary wrapping with ultrathin sheet(s) and a liquid–liquid encapsulation framework, where thin liquid film(s) are used to wrap liquid analytes, with an emphasis on the latter. The promising prospects of both approaches are discussed, recent developments are outlined, and areas of future research that can lead to a truly versatile and comprehensive encapsulation platform applicable to a broad range of practical applications are highlighted.

Advanced Materials InterfacesVol. 12(7)
University of Waterloo (CA)
University of Waterloo, Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 19%
Electrohydrodynamics and Fluid Dynamics
1.25
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