Chemical systems that remain kinetically dormant until activated have numerous applications in materials science. Herein we present a method for the control of gelation that exploits an inbuilt switch: the increase in pH after an induction period in the urease-catalyzed hydrolysis of urea was used to trigger the base-catalyzed Michael addition of a water-soluble trithiol to a polyethylene glycol diacrylate. The time to gelation (minutes to hours) was either preset through the initial concentrations or the reaction was initiated locally by a base, thus resulting in polymerization fronts that converted the mixture from a liquid into a gel (ca. 0.1 mm min−1). The rate of hydrolytic degradation of the hydrogel depended on the initial concentrat...
Simultaneous control of the kinetics and thermodynamics of two different types of covalent chemist...
A transient organo-gelation system with spatiotemporal dynamic properties is described. Here, the so...
Nature uses catalysis as an indispensable tool to control assembly and reaction cycles in vital non-...
Chemical systems that remain kinetically dormant until activated have numerous applications in mater...
Feedback through enzyme reactions creates new possibilities for the temporal programming of material...
Artificial self‐regulating materials can be prepared by exploiting fuel‐driven pathways. Dynamic cov...
In living systems, self‐assembly processes are driven by the consumption of chemical fuels. Syntheti...
Kinetic control over supramolecular gelation by increasing the pH can be achieved using an enzymatic...
Feedback driven by enzyme catalyzed reactions occurs widely in biology and has been well characteriz...
The forthcoming generation of soft materials will be designed to autonomously adapt to their environ...
Hydrogels are 3D networks infused with water. When formed via radical polymerization, inherently sta...
The theme of this work is time-lapse polymerizations triggered by pH clock reactions. The first chap...
Supramolecular hydrogels are useful in many areas such as cell culturing, catalysis, sensing, tissue...
Dynamic systems are of great interest from the perspective of mimicking biology through to preparing...
Spatial control over gelation with low molecular weight gelators is possible using an electrochemica...
Simultaneous control of the kinetics and thermodynamics of two different types of covalent chemist...
A transient organo-gelation system with spatiotemporal dynamic properties is described. Here, the so...
Nature uses catalysis as an indispensable tool to control assembly and reaction cycles in vital non-...
Chemical systems that remain kinetically dormant until activated have numerous applications in mater...
Feedback through enzyme reactions creates new possibilities for the temporal programming of material...
Artificial self‐regulating materials can be prepared by exploiting fuel‐driven pathways. Dynamic cov...
In living systems, self‐assembly processes are driven by the consumption of chemical fuels. Syntheti...
Kinetic control over supramolecular gelation by increasing the pH can be achieved using an enzymatic...
Feedback driven by enzyme catalyzed reactions occurs widely in biology and has been well characteriz...
The forthcoming generation of soft materials will be designed to autonomously adapt to their environ...
Hydrogels are 3D networks infused with water. When formed via radical polymerization, inherently sta...
The theme of this work is time-lapse polymerizations triggered by pH clock reactions. The first chap...
Supramolecular hydrogels are useful in many areas such as cell culturing, catalysis, sensing, tissue...
Dynamic systems are of great interest from the perspective of mimicking biology through to preparing...
Spatial control over gelation with low molecular weight gelators is possible using an electrochemica...
Simultaneous control of the kinetics and thermodynamics of two different types of covalent chemist...
A transient organo-gelation system with spatiotemporal dynamic properties is described. Here, the so...
Nature uses catalysis as an indispensable tool to control assembly and reaction cycles in vital non-...