Water‐Templated Growth of Interfacial Superglue Polymers for Tunable Thin Films and In Situ Fluid Encapsulation

Author:

Jampani Venkata S. R.12ORCID,Škarabot Miha2,Mur Urban3,Baigl Damien4,Jonas Ulrich5,Lagerwall Jan P. F.1,Ravnik Miha3,Anyfantakis Manos1ORCID

Affiliation:

1. Department of Physics and Materials Science University of Luxembourg Luxembourg L‐1511 Luxembourg

2. Condensed Matter Physics Department Jožef Stefan Institute Ljubljana 1000 Slovenia

3. Faculty of Mathematics and Physics University of Ljubljana Ljubljana 1000 Slovenia

4. PASTEUR Department of Chemistry École Normale Supérieure PSL University Sorbonne Université CNRS Paris 75005 France

5. Department of Chemistry and Biology University of Siegen D‐57076 Siegen Germany

Abstract

AbstractThin polymer films (TPFs) are indispensable elements in numerous technologies ranging from liquid encapsulation to biotechnology to electronics. However, their production typically relies on wet chemistry involving organic solvents or chemical vapor deposition, necessitating elaborate equipment and often harsh conditions. Here, an eco‐friendly, fast, and facile synthesis of water‐templated interfacial polymers based on cyanoacrylates (superglues, CAs) that yield thin films with tailored properties is demonstrated. Specifically, by exposing a cationic surfactant‐laden water surface to cyanoacrylate vapors, surfactant‐modulated anionic polymerization produces a manipulable thin polymer film with a thickness growth rate of 8 nm min−1. Furthermore, the shape and color of the film are precisely controlled by the polymerization kinetics, wetting conditions, and/or exposure to patterned light. Using various interfaces as templates for film growth, including the free surface of drops and soap bubbles, the developed method advantageously enables in situ packaging of chemical and biological cargos in liquid phase as well as the encapsulation of gases within solidified bubbles. Simple, versatile, and biocompatible, this technology constitutes a potent platform for programmable coating and soft/smart encapsulation of fluids.

Funder

Fonds National de la Recherche Luxembourg

Javna Agencija za Raziskovalno Dejavnost RS

Publisher

Wiley

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