“…Developed over the past decade, vitrimers have been designed from many different chemistries and for many different applications. Vitrimers can provide an ideal platform for designing the viscoelastic properties of a polymer via changes in the chemistry of the polymer backbone − or the type of dynamic bond. ,− These materials have been investigated in applications including shockwave dissipation, three-dimensional (3D) printing, creep resistant plastics, thermally conductive materials, solid battery electrolytes, and ultrathin coatings, where the viscosity and modulus contribute substantially to the resultant performance. In most cases, vitrimers show an Arrhenius temperature dependence of viscosity and a storage modulus, which increases with the cross-link density. ,,, The modulus of vitrimers has also been shown to increase upon heating in contrast to most dissociative dynamic networks. ,, Through a combination of multiple dynamic bonds, the goal of precise control over the temperature-dependent viscoelasticity of a polymer may be possible.…”