Current
methods for making and disposing synthetic polymers have
been widely pursued and are largely unsustainable. As a part of the
solution, the reversible nature of dynamic covalent bonds emerges
as an extraordinarily diverse and valuable feature in the development
of exotic molecules and extended structures. With these bonds, it
should be possible to construct recyclable and mechanically interlocked
molecular structures using relatively simple precursors with preorganized
geometries. A new helicide-based elastomer network is developed here
with self-healing, recycling, and degradation features using a similar
concept. The best self-healing performance (100%) was noted over 10–20
min, with various H2O, HCl, and NaOH solutions that delivered
mechanical properties in the 1–1.4 MPa range. For hydrolytic
degradation, the parameters are defined based on the type of binding,
the pH of the solutions, and the copolymer network, which endowed
a degradation time of approximately 4–11 h for each prepared
sample. However, due to the reversible nature of the dynamic bonds,
the material showed good recyclable mechanical properties compared
to the pristine samples after five consecutive cycles, which meet
the requirements of recyclable materials and recyclable packaging.